mhurhangee/ep-ind-claims huggingface dataset:
A method for providing information in an information processing system, the method comprising: acquiring, via a network, biological gas information; obtaining (S105, S106) reference information, using a memory storing the reference information representing an upper limit of a normal range; and outputting (S206 or S207) information related to stress of a user to an information terminal; characterized in that the biological gas information represents a concentration of acetophenone of the user detected with a sensor for detecting acetophenone released from a skin surface of the user; the reference information represents the upper limit of the normal range of the concentration of acetophenone per unit period of time; and the information related to stress is output after it is determined (S204, S205) that a frequency with which the concentration of the acetophenone of the user per unit period of time is more than the upper limit of the normal range tends to increase, based on the biological gas information acquired in a pregnancy period of the user. acquiring, via a network, biological gas information; obtaining (S105, S106) reference information, using a memory storing the reference information representing an upper limit of a normal range; and outputting (S206 or S207) information related to stress of a user to an information terminal; characterized in that the biological gas information represents a concentration of acetophenone of the user detected with a sensor for detecting acetophenone released from a skin surface of the user; the reference information represents the upper limit of the normal range of the concentration of acetophenone per unit period of time; and the information related to stress is output after it is determined (S204, S205) that a frequency with which the concentration of the acetophenone of the user per unit period of time is more than the upper limit of the normal range tends to increase, based on the biological gas information acquired in a pregnancy period of the user.
A system, comprising: a vibratory screening machine having a first wall member, a second wall member, an acceleration arrangement, and a concave support surface located between the first and second wall members (1012, 1014); and a preformed screen assembly installed on the vibratory screening machine including a frame having an arched convex bottom contact support surface and a screen supported by the frame, wherein the screen includes a flat screening surface; the frame is rigid; and the arched bottom contact support surface interfaces with the fixed concave support surface of the vibratory screening machine. a vibratory screening machine having a first wall member, a second wall member, an acceleration arrangement, and a concave support surface located between the first and second wall members (1012, 1014); and a preformed screen assembly installed on the vibratory screening machine including a frame having an arched convex bottom contact support surface and a screen supported by the frame, wherein the screen includes a flat screening surface; the frame is rigid; and the arched bottom contact support surface interfaces with the fixed concave support surface of the vibratory screening machine.
A terminal apparatus comprising: a reference signal generating section configured to generate a periodic Sounding Reference Signal, SRS, for which a transmission time interval is configured and an aperiodic-SRS for which a transmission time interval is not configured, both of the periodic-SRS and the aperiodic-SRS being a reference signal for estimation of a channel quality; an offset setting section configured to set a first offset value for controlling transmission power of the periodic-SRS and to set a second offset value for controlling transmission power of the aperiodic-SRS, wherein said offset values are offset values for a physical uplink shared channel transmission power; and a transmitting section configured to transmit the periodic-SRS at a transmission power which is controlled based on the first offset value and to transmit the aperiodic-SRS at a transmission power which is controlled based on the second offset value, characterized in that the second offset value is larger than the first offset value. a reference signal generating section configured to generate a periodic Sounding Reference Signal, SRS, for which a transmission time interval is configured and an aperiodic-SRS for which a transmission time interval is not configured, both of the periodic-SRS and the aperiodic-SRS being a reference signal for estimation of a channel quality; an offset setting section configured to set a first offset value for controlling transmission power of the periodic-SRS and to set a second offset value for controlling transmission power of the aperiodic-SRS, wherein said offset values are offset values for a physical uplink shared channel transmission power; and a transmitting section configured to transmit the periodic-SRS at a transmission power which is controlled based on the first offset value and to transmit the aperiodic-SRS at a transmission power which is controlled based on the second offset value, characterized in that the second offset value is larger than the first offset value.
A virtual delivery appliance comprising: a memory and a processor configured to cooperate with the memory to communicate with a client device over a network to provide the client device with a virtualized session for a user, communicate with the client device over the network to perform a registration operation with a registration and authentication function, an application within the virtualized session performing an authentication operation with the registration and authentication function to access a resource, forward an authentication challenge message to the client device in response to the application receiving the authentication challenge message from the registration and authentication function for the user to access the resource, and receive an authentication answer message in response to the authentication challenge message from the client device, the authentication answer message being based upon a biometric characteristic of the user accessible from a memory of the client device, the application to forward the authentication answer message to the registration and authentication function to complete the authentication operation. communicate with a client device over a network to provide the client device with a virtualized session for a user, communicate with the client device over the network to perform a registration operation with a registration and authentication function, an application within the virtualized session performing an authentication operation with the registration and authentication function to access a resource, forward an authentication challenge message to the client device in response to the application receiving the authentication challenge message from the registration and authentication function for the user to access the resource, and receive an authentication answer message in response to the authentication challenge message from the client device, the authentication answer message being based upon a biometric characteristic of the user accessible from a memory of the client device, the application to forward the authentication answer message to the registration and authentication function to complete the authentication operation.
A double cooking container comprising: an outer cylinder; an inner cylinder disposed inside the outer cylinder; a heat retaining space formed by inserting the inner cylinder into the inside of the outer cylinder to maintain a predetermined interval between the bottom of the outer cylinder and the underside of the inner cylinder; and a side fluid channel formed between the outer cylinder and the inner cylinder to communicate with the heat retaining space, wherein the outer cylinder has one or a plurality of discharge holes formed thereon in such a manner as to communicate with the side fluid channel, characterized in that the entire sectional area of the one or the plurality of discharge holes is controlled to be within the range of 1 to 25 πmm 2. an outer cylinder; an inner cylinder disposed inside the outer cylinder; a heat retaining space formed by inserting the inner cylinder into the inside of the outer cylinder to maintain a predetermined interval between the bottom of the outer cylinder and the underside of the inner cylinder; and a side fluid channel formed between the outer cylinder and the inner cylinder to communicate with the heat retaining space, wherein the outer cylinder has one or a plurality of discharge holes formed thereon in such a manner as to communicate with the side fluid channel, characterized in that the entire sectional area of the one or the plurality of discharge holes is controlled to be within the range of 1 to 25 πmm 2.
A container for the treatment of medical or dental instruments in an autoclave and for the releasable attachment in an interior space of an autoclave, comprising - at least one first port for the supply of liquids for the outer and inner cleaning of the medical or dental instruments into the container, - at least one second port for the discharge of the liquids for the outer and inner cleaning of the medical or dental instruments and/or the sterilization medium from the container, wherein the first port and the second port of the container each are connectable to at least one port of the autoclave for the supply of the cleaning liquids into the container and to at least one port of the autoclave for the discharge of the cleaning liquids from the container, without the liquids for the outer and inner cleaning of the medical or dental instruments exiting into the interior space of the autoclave; characterized by - at least one supply line (4, 19a, 19b) for the supply of at least one sterilization medium from the interior space of the autoclave, in which the container is mounted, into the container, wherein the first supply line (4, 19a, 19b) for the supply of the sterilization medium into the container is configured as a labyrinth-shaped line or as a meander-shaped line, wherein the at least one supply line (4, 19a, 19b) can be passed by the at least one sterilization medium, but are not passable for the liquids for the outer and inner cleaning of the medical or dental instruments, wherein the container is designed to be not self-supporting with respect to process pressures of a saturated steam sterilization. - at least one first port for the supply of liquids for the outer and inner cleaning of the medical or dental instruments into the container, - at least one second port for the discharge of the liquids for the outer and inner cleaning of the medical or dental instruments and/or the sterilization medium from the container, - at least one supply line (4, 19a, 19b) for the supply of at least one sterilization medium from the interior space of the autoclave, in which the container is mounted, into the container, wherein the first supply line (4, 19a, 19b) for the supply of the sterilization medium into the container is configured as a labyrinth-shaped line or as a meander-shaped line,
A high-performance packaging method for packaging in particular small sized products, preferably confectionery products such as hard or soft caramels, chocolates, or the like, with the products being fed in a plurality of product flows (A, B) through at least one packaging mechanism comprising at least packaging station, with at least one packaging station having a plurality of packaging units consisting of product/packaging material holding means, with each packaging unit being allocated to a product flow (A, B) of individual products, with a piece of packaging material being allocated to each product within a product flow (A, B) in the packaging mechanism, and with the products of several product flows being packaged in a continuous and/or intermittent process and/or the product flows being processed with a variable number of devices, characterized in that packaging units allocated to a plurality of product flows are provided on each single rotating head or wheel, with the product flows (A, B) being simultaneously processed essentially in parallel and/or in the same direction according to the principle of circles of cooperating heads or wheels rolling on one another, and with the packaging material being fed to the packaging mechanism at high speed, essentially radially to the respective head or wheel, as a packaging material strip, said strip being held in the packaging mechanism and a packaging material section being cut off, or packaging material sections of a packaging material length being cut off before being fed into the packaging mechanism, and packaging material sections being fed to the packaging mechanism, essentially radially and individually to the respective head or wheel.
Façade assembly for a building, with at least a façade element, which may be fastened to the outside edge of a storey of the building, in which a gap is formed between the façade element and the outside edge of the storey, and with at least a fire protection element, which in the assembled state is installed between the façade element and the outside edge of the storey in the area of the gap, in which the fire protection element comprises an insulating layer and a fire protection mat, in which the insulating layer has a first side surface turned towards the façade element and a second side surface opposite the first side surface, which is turned towards the outside edge of the storey, and has a lower surface extending between the first and second side surfaces (36, 38), and in which the fire protection mat surrounds the lower surface of the insulating layer and lies on at least a part of the first and second side surfaces (36, 38), characterised in that the fire protection mat is a coated or uncoated textile material and has at least a fringed edge section, in which the fringed edge section or the fringed edge sections is or are arranged between the insulating layer and the façade element or the outside edge of a ceiling of the storey, in order to ensure better surface contact.
An article comprising: A nonwoven paper layer directly fused on one or both sides with a nonwoven fabric layer wherein one or both of the nonwoven paper and nonwoven fabric are electrically insulating, wherein the nonwoven paper primarily comprises a sheet material having fibers less than one inch (2.54 cm) long and further comprises: 50 wt.-% to 80 wt.-% of an inorganic filler, and 3 wt.-% to 10 wt.-% of a polymer binder; and wherein the nonwoven fabric primarily comprises a sheet material having fiber greater than or equal to one inch (2.54 cm) long, including: 20 wt.-% to 70 wt.-% binder fibers, and 30 wt.-% to 80 wt.-% staple fibers, wherein the staple fibers comprise para-aramid staple fibers. A nonwoven paper layer directly fused on one or both sides with a nonwoven fabric layer wherein one or both of the nonwoven paper and nonwoven fabric are electrically insulating, wherein the nonwoven paper primarily comprises a sheet material having fibers less than one inch (2.54 cm) long and further comprises: 50 wt.-% to 80 wt.-% of an inorganic filler, and 3 wt.-% to 10 wt.-% of a polymer binder; and 50 wt.-% to 80 wt.-% of an inorganic filler, and 3 wt.-% to 10 wt.-% of a polymer binder; and wherein the nonwoven fabric primarily comprises a sheet material having fiber greater than or equal to one inch (2.54 cm) long, including: 20 wt.-% to 70 wt.-% binder fibers, and 30 wt.-% to 80 wt.-% staple fibers, wherein the staple fibers comprise para-aramid staple fibers. 20 wt.-% to 70 wt.-% binder fibers, and 30 wt.-% to 80 wt.-% staple fibers, wherein the staple fibers comprise para-aramid staple fibers.
Ultrasound transducer assembly, in particular for intravascular ultrasound systems, comprising: - at least one silicon substrate element including an ultrasound transducer element for emitting and receiving ultrasound waves and including electrical connectors for electrically connecting the ultrasound transducer element, wherein the at least one silicon substrate element has a top surface, a bottom surface and a side surface connecting the top surface and the bottom surface to each other, and characterized in that an isolation layer (34, 50) is disposed at the side surface for electrically isolating the at least one silicon substrate element, the isolation layer forming an exposed outer surface of the at least one silicon substrate element and being exposed to the outside. - at least one silicon substrate element including an ultrasound transducer element for emitting and receiving ultrasound waves and including electrical connectors for electrically connecting the ultrasound transducer element, wherein the at least one silicon substrate element has a top surface, a bottom surface and a side surface connecting the top surface and the bottom surface to each other, and characterized in that an isolation layer (34, 50) is disposed at the side surface for electrically isolating the at least one silicon substrate element, the isolation layer forming an exposed outer surface of the at least one silicon substrate element and being exposed to the outside. wherein the at least one silicon substrate element has a top surface, a bottom surface and a side surface connecting the top surface and the bottom surface to each other, and characterized in that an isolation layer (34, 50) is disposed at the side surface for electrically isolating the at least one silicon substrate element, the isolation layer forming an exposed outer surface of the at least one silicon substrate element and being exposed to the outside.
A recording medium comprising a substrate and an ink-receiving layer provided on the substrate, wherein the ink-receiving layer contains a silica particle and a water-insoluble resin, and wherein the silica particle satisfies the following expressions 1 and 2 when an average pore radius thereof determined by the BJH method is taken as r (nm), and an oil absorption thereof measured by the linseed oil droplet method is taken as V (ml/100 g): expression 1: r ≤ 5.0 (nm) expression 2: V/r ≥ 80 ((ml/100 g)/nm). wherein the ink-receiving layer contains a silica particle and a water-insoluble resin, and wherein the silica particle satisfies the following expressions 1 and 2 when an average pore radius thereof determined by the BJH method is taken as r (nm), and an oil absorption thereof measured by the linseed oil droplet method is taken as V (ml/100 g): expression 1: r ≤ 5.0 (nm) expression 2: V/r ≥ 80 ((ml/100 g)/nm). expression 1: r ≤ 5.0 (nm) expression 2: V/r ≥ 80 ((ml/100 g)/nm).
A light emitting device comprising: a light emitting structure including a first semiconductor layer, an active layer and a second semiconductor layer; a first cavity passing through the first semiconductor layer and the active layer to expose the second semiconductor layer; a first electrode extending to the outside of the first cavity from the second semiconductor layer in the first cavity; a second electrode disposed on an outer peripheral region of the first semiconductor layer and spaced apart from the first electrode while surrounding a lateral side of the first electrode; a first insulating layer between the first electrode and the light emitting structure; wherein the light emitting device further comprises: a first reflective layer between the first electrode and the second semiconductor layer; a second reflective layer between the first semiconductor layer and the second electrode, and a second insulating layer between the first electrode and the second reflective layer, wherein a part of the second reflective layer extends between the first electrode and the first insulating layer on the inner lateral side of the cavity. a light emitting structure including a first semiconductor layer, an active layer and a second semiconductor layer; a first cavity passing through the first semiconductor layer and the active layer to expose the second semiconductor layer; a first electrode extending to the outside of the first cavity from the second semiconductor layer in the first cavity; a second electrode disposed on an outer peripheral region of the first semiconductor layer and spaced apart from the first electrode while surrounding a lateral side of the first electrode; a first insulating layer between the first electrode and the light emitting structure; wherein the light emitting device further comprises: a first reflective layer between the first electrode and the second semiconductor layer; a second reflective layer between the first semiconductor layer and the second electrode, and a second insulating layer between the first electrode and the second reflective layer, wherein a part of the second reflective layer extends between the first electrode and the first insulating layer on the inner lateral side of the cavity. a first reflective layer between the first electrode and the second semiconductor layer; a second reflective layer between the first semiconductor layer and the second electrode, and a second insulating layer between the first electrode and the second reflective layer, wherein a part of the second reflective layer extends between the first electrode and the first insulating layer on the inner lateral side of the cavity.
An automated whole blood separation system comprising a disposable fluid flow circuit and a durable controller configured to cooperate with and control flow through the disposable fluid flow circuit, the disposable fluid circuit comprising: a whole blood fluid flow path with a whole blood inlet for connection to a source of whole blood; a separator (10, 108) including housing and inner rotor mounted within the housing for rotation relative to the housing, a gap being defined between an outer surface of the rotor and an inner surface of the housing, at least one of the outer surface of the rotor or inner surface of the housing comprising a plasmapheresis filter membrane configured to allow the passage of plasma therethrough while substantially blocking cellular components, the membrane comprising polycarbonate and having a smooth surface and randomly-distributed, substantially linear, cylindrical pores with a nominal diameter of 0.8 μm to 2.0 microns, wherein the pores are formed by a track-etching process; the housing including an inlet in fluid communication with the whole blood and/or cell preservation solution flow paths and in flow communication with the gap for directing whole blood and/or cell preservation solution into the gap, the housing including an outlet communicating with the gap and the housing and/or rotor including an outlet communicating with the side of the membrane facing away from the gap; and the housing outlet communicating with the gap being in flow communication with an outlet fluid flow path for connection to a storage container. a whole blood fluid flow path with a whole blood inlet for connection to a source of whole blood; a separator (10, 108) including housing and inner rotor mounted within the housing for rotation relative to the housing, a gap being defined between an outer surface of the rotor and an inner surface of the housing, at least one of the outer surface of the rotor or inner surface of the housing comprising a plasmapheresis filter membrane configured to allow the passage of plasma therethrough while substantially blocking cellular components, the membrane comprising polycarbonate and having a smooth surface and randomly-distributed, substantially linear, cylindrical pores with a nominal diameter of 0.8 μm to 2.0 microns, wherein the pores are formed by a track-etching process; the housing including an inlet in fluid communication with the whole blood and/or cell preservation solution flow paths and in flow communication with the gap for directing whole blood and/or cell preservation solution into the gap, the housing including an outlet communicating with the gap and the housing and/or rotor including an outlet communicating with the side of the membrane facing away from the gap; and the housing outlet communicating with the gap being in flow communication with an outlet fluid flow path for connection to a storage container.