mhurhangee/ep-ind-claims huggingface dataset:
A silicon carbide semiconductor device comprising: a silicon carbide substrate having a first carrier concentration; a drift layer of silicon carbide having a first conductivity type on the silicon carbide substrate and having a carrier concentration less than the first carrier concentration; a base region of a second conductivity type semiconductor material on the drift layer; a channel region of silicon carbide having the first conductivity type on the base region opposite the drift layer, wherein the channel region is in contact with the drift layer; a first region of semiconductor material of the first conductivity type and being doped to a carrier concentration of greater than the carrier concentration of the drift layer, wherein the first region of semiconductor material is on the base region opposite the substrate and is in physical contact with the channel region and the base region; a gate layer of semiconductor material of the second conductivity type on the channel region, wherein the gate layer is adjacent but spaced apart from the first region of semiconductor material; a gate contact on the gate layer of semiconductor material; a first contact on the first region of semiconductor material; and a second contact on the silicon carbide substrate opposite the drift layer. a silicon carbide substrate having a first carrier concentration; a drift layer of silicon carbide having a first conductivity type on the silicon carbide substrate and having a carrier concentration less than the first carrier concentration; a base region of a second conductivity type semiconductor material on the drift layer; a channel region of silicon carbide having the first conductivity type on the base region opposite the drift layer, wherein the channel region is in contact with the drift layer; a first region of semiconductor material of the first conductivity type and being doped to a carrier concentration of greater than the carrier concentration of the drift layer, wherein the first region of semiconductor material is on the base region opposite the substrate and is in physical contact with the channel region and the base region; a gate layer of semiconductor material of the second conductivity type on the channel region, wherein the gate layer is adjacent but spaced apart from the first region of semiconductor material; a gate contact on the gate layer of semiconductor material; a first contact on the first region of semiconductor material; and a second contact on the silicon carbide substrate opposite the drift layer.
A construction kit for constructing a home appliance device, in particular a home appliance chiller device, comprising an inner liner defining a storage space; and a container arranged inside the storage space, wherein the construction kit comprises a frame (22a; 22b; 22d; 22f); a first module comprising a manual actuator (16a; 16d; 16f; 16g) configured for adjusting the humidity inside the container; and a receptacle (20a - 20f), which at least partly accommodates the manual actuator (16a; 16d; 16f; 16g) and is fixable to the frame (22a; 22b; 22d; 22f); and a second module comprising a manual actuator (16a; 16d; 16f; 16g) configured for adjusting the humidity inside the container; a illumination unit (18a; 18c; 18d) configured for illuminating the interior of the container; and a receptacle (20a - 20f), which at least partly accommodates the illumination unit (18a; 18c; 18d) and at least partly accommodates the manual actuator (16a; 16d; 16f; 16g) and is fixable to the frame (22a; 22b; 22d; 22f).
A thrombectomy device comprising: an interventional element (100,600,700,800) configured to be advanced intravascularly to a treatment site in a corporeal lumen and to engage a thrombus therein, wherein the interventional element (100,600,700,800) possesses an inner conductive material and an overlying material that has a lower electrical conductivity than the inner conductive material, characterized by the overlying material having a thickness gradient that decreases from a first thickness in a proximal portion of the interventional element (100,600,700,800) to a second non-zero thickness in a distal portion of the interventional element (100,600,700,800) such that a surface electrical conductivity of the interventional element (100,600,700,800) has a gradient that increases from the proximal portion of the interventional element to the distal portion of the interventional element (100,600,700,800), wherein the surface electrical conductivity is greater than zero in the proximal portion. an interventional element (100,600,700,800) configured to be advanced intravascularly to a treatment site in a corporeal lumen and to engage a thrombus therein, wherein the interventional element (100,600,700,800) possesses an inner conductive material and an overlying material that has a lower electrical conductivity than the inner conductive material, characterized by the overlying material having a thickness gradient that decreases from a first thickness in a proximal portion of the interventional element (100,600,700,800) to a second non-zero thickness in a distal portion of the interventional element (100,600,700,800) such that a surface electrical conductivity of the interventional element (100,600,700,800) has a gradient that increases from the proximal portion of the interventional element to the distal portion of the interventional element (100,600,700,800), wherein the surface electrical conductivity is greater than zero in the proximal portion.
An apparatus, comprising: an optical coupler; a first waveguide grating; and a first plurality of waveguides connected to the first waveguide grating, wherein: the first plurality comprises a first waveguide and a second waveguide collinear with the first waveguide at the first waveguide grating; optical power of a first polarization of a first optical signal applied to the first waveguide grating is split and coupled by the first waveguide grating into the first and second waveguides; the first and second waveguides are connected to a first side of the optical coupler; the first waveguide has a first length between the first waveguide grating and the optical coupler; and the second waveguide has a second length between the first waveguide grating and the optical coupler, the second length being different from the first length. an optical coupler; a first waveguide grating; and a first plurality of waveguides connected to the first waveguide grating, wherein: the first plurality comprises a first waveguide and a second waveguide collinear with the first waveguide at the first waveguide grating; optical power of a first polarization of a first optical signal applied to the first waveguide grating is split and coupled by the first waveguide grating into the first and second waveguides; the first and second waveguides are connected to a first side of the optical coupler; the first waveguide has a first length between the first waveguide grating and the optical coupler; and the second waveguide has a second length between the first waveguide grating and the optical coupler, the second length being different from the first length. the first plurality comprises a first waveguide and a second waveguide collinear with the first waveguide at the first waveguide grating; optical power of a first polarization of a first optical signal applied to the first waveguide grating is split and coupled by the first waveguide grating into the first and second waveguides; the first and second waveguides are connected to a first side of the optical coupler; the first waveguide has a first length between the first waveguide grating and the optical coupler; and the second waveguide has a second length between the first waveguide grating and the optical coupler, the second length being different from the first length.
A gas turbine engine comprising: a shaft defining an axis of rotation; a speed reduction device driven by the shaft; and a fan including a fan rotor driven by the speed reduction device; characterised by further comprising: a compressor comprising a plurality of compressor stages driven by the shaft; and at least one inducer stage (112,130) positioned aft of the fan and upstream of the compressor and coupled for rotation with the fan rotor. a shaft defining an axis of rotation; a speed reduction device driven by the shaft; and a fan including a fan rotor driven by the speed reduction device; a compressor comprising a plurality of compressor stages driven by the shaft; and at least one inducer stage (112,130) positioned aft of the fan and upstream of the compressor and coupled for rotation with the fan rotor.
An optical triangulation sensor comprising: a light source, and a detector characterised in that: the light source is arranged to emit a plurality of discrete planar light beams which lie spatially separated from each other along a common plane in the field of view of the sensor, such that when the discrete planar light beams are projected onto a measurement surface located in the field of view of the sensor, a plurality of lines corresponding to the discrete planar light beams is formed on the measurement surface; and the detector is located out of the common plane for detecting light from the discrete planar light beams that is reflected at an angle to the common plane. a light source, and a detector characterised in that: the light source is arranged to emit a plurality of discrete planar light beams which lie spatially separated from each other along a common plane in the field of view of the sensor, such that when the discrete planar light beams are projected onto a measurement surface located in the field of view of the sensor, a plurality of lines corresponding to the discrete planar light beams is formed on the measurement surface; and the detector is located out of the common plane for detecting light from the discrete planar light beams that is reflected at an angle to the common plane. the light source is arranged to emit a plurality of discrete planar light beams which lie spatially separated from each other along a common plane in the field of view of the sensor, such that when the discrete planar light beams are projected onto a measurement surface located in the field of view of the sensor, a plurality of lines corresponding to the discrete planar light beams is formed on the measurement surface; and the detector is located out of the common plane for detecting light from the discrete planar light beams that is reflected at an angle to the common plane.
A control method of a laundry machine including a tub connected with a vibration source via a rear gasket, a drum rotatably provided in the tub, and a ball balancer (70; 310; 330) comprising a ball, the laundry machine having an irregular vibration region in which irregular vibration is generated after passing through a transient region, the transient region being a region of a rotation speed of the drum where irregular transient vibration occurs, wherein irregular vibration is determined to be generated in the irregular vibration region if a drum displacement is the maximum drum displacement or more generated in an RPM band lower than the transient region, or is the maximum drum displacement or more of a steady state step where vibration becomes steady in a RPM band higher than the transient region, the control method comprising: a step configured to determine an irregular vibration region of the laundry machine; a first balancing step of rotating the drum at a constant speed (B1-RPM) for a predetermined time period performed after passing through the transient region and before entering the irregular vibration region; and a second balancing step of rotating the drum at a constant speed (B2-RPM; B3-RPM) for a predetermined time period (t2; t3), wherein the second balancing step is performed after the first balancing step and after entering the irregular vibration region and increasing the rotation speed of the drum to be higher than the rotation speed (B1-RPM) of the drum in the first balancing step. a step configured to determine an irregular vibration region of the laundry machine; a first balancing step of rotating the drum at a constant speed (B1-RPM) for a predetermined time period performed after passing through the transient region and before entering the irregular vibration region; and a second balancing step of rotating the drum at a constant speed (B2-RPM; B3-RPM) for a predetermined time period (t2; t3), wherein the second balancing step is performed after the first balancing step and after entering the irregular vibration region and increasing the rotation speed of the drum to be higher than the rotation speed (B1-RPM) of the drum in the first balancing step.
A network device comprising: a network controller comprising a transmit scheduler configured to control scheduling nodes organized in a topology to implement packet transmission scheduling and queuing flows, wherein the transmit scheduler is configured to: identify, from a plurality of configuration operations to be executed on one or more of the scheduling nodes, (i) one or more first configuration operations to be executed while the scheduling nodes are active, (ii) one or more second configuration operations to be executed while the scheduling nodes are inactive, and (iii) one or more third configuration operations to be executed via a buffer while the scheduling nodes are active; execute the one or more first configuration operations as part of a background process while the scheduling nodes are active; execute the one or more second configuration operations while the scheduling nodes are inactive, which comprises to determine that a scheduling pipeline on the transmit scheduler is not executing pending transmission operations; suspend operation of the transmit scheduler; execute the one or more second configuration operations; resume operation of the transmit scheduler; load the one or more third configuration operations in the buffer; and activate the buffer; and execute the one or more third configuration operations via the buffer while the scheduling nodes are active. identify, from a plurality of configuration operations to be executed on one or more of the scheduling nodes, (i) one or more first configuration operations to be executed while the scheduling nodes are active, (ii) one or more second configuration operations to be executed while the scheduling nodes are inactive, and (iii) one or more third configuration operations to be executed via a buffer while the scheduling nodes are active; execute the one or more first configuration operations as part of a background process while the scheduling nodes are active; execute the one or more second configuration operations while the scheduling nodes are inactive, which comprises to determine that a scheduling pipeline on the transmit scheduler is not executing pending transmission operations; suspend operation of the transmit scheduler; execute the one or more second configuration operations; resume operation of the transmit scheduler; load the one or more third configuration operations in the buffer; and activate the buffer; and determine that a scheduling pipeline on the transmit scheduler is not executing pending transmission operations; suspend operation of the transmit scheduler; execute the one or more second configuration operations; resume operation of the transmit scheduler; load the one or more third configuration operations in the buffer; and activate the buffer; and execute the one or more third configuration operations via the buffer while the scheduling nodes are active.
Rubber composition based on at least an elastomer, a reinforcing filler, a crosslinking system and a rubber crumb, the said rubber crumb exhibiting: - an acetone extract of between 8% and 50% by weight; - a chloroform extract such that the ratio of the chloroform extract to the acetone extract, expressed as percentage by weight, is less than 1.5, the chloroform extract exhibiting a weight-average molecular weight (Mw) of less than 10000 g/mol; - and a content of plasticizer of greater than 8% by weight in the composition of the crumb. - an acetone extract of between 8% and 50% by weight; - a chloroform extract such that the ratio of the chloroform extract to the acetone extract, expressed as percentage by weight, is less than 1.5, the chloroform extract exhibiting a weight-average molecular weight (Mw) of less than 10000 g/mol; - and a content of plasticizer of greater than 8% by weight in the composition of the crumb.
A ventilation system comprising a breathing apparatus for providing mechanical ventilation to a patient, the breathing apparatus being configured to perform, at a first point in time, an automated full recruitment manoeuvre, FRM, comprising a recruitment phase, a PEEP titration phase and a re-recruitment phase, the FRM being performed based on preset FRM settings, and, at a second and later point in time following a period of baseline ventilation, an automated quick recruitment manoeuvre, QRM, comprising a recruitment phase but no PEEP titration phase or re-recruitment phase, the QRM being performed based on preset QRM settings, wherein the breathing apparatus is configured to initiate at least one QRM setting based on at least one FRM setting used for the FRM manoeuvre, and/or a result of the FRM manoeuvre. an automated full recruitment manoeuvre, FRM, comprising a recruitment phase, a PEEP titration phase and a re-recruitment phase, the FRM being performed based on preset FRM settings, and, at a second and later point in time following a period of baseline ventilation, an automated quick recruitment manoeuvre, QRM, comprising a recruitment phase but no PEEP titration phase or re-recruitment phase, the QRM being performed based on preset QRM settings, wherein the breathing apparatus is configured to initiate at least one QRM setting based on at least one FRM setting used for the FRM manoeuvre, and/or a result of the FRM manoeuvre.
A valve apparatus comprising: a control valve including valve body having an inlet, an outlet, and a flow path extending between the inlet and the outlet; a rotational valve stem extending along a longitudinal axis, the valve stem having a top portion and a bottom portion, the bottom portion disposed within the valve body, the valve stem operatively coupled to a control element movably disposed in the flow path; a yoke attached to the valve body and arranged to operatively couple the valve body to an actuator, the yoke including a first bracket having an aperture and a second bracket having an aperture; and a bushing arranged to align an actuator shaft of the actuator to the longitudinal axis of the valve stem, characterized in that: the bushing has a first portion and a second portion, the first portion engaging within the aperture of the first bracket and the second portion engaging the aperture of the second bracket.
A transplant preservation solution comprising a hyperbranched or dendritic polyglycerol wherein the hyperbranched or dendritic polyglycerol is of a molecular weight between 0.48 kDa and 3.00 kDa, and wherein the transplant preservation solution is a UW-type solution that does not comprise raffinose or hydroxyethyl starch, the transplant preservation solution for use as a medicament for reducing the damaging effects of cold ischemia and warm reperfusion on organ function in a method comprising procuring an organ, maintaining the organ, in the transplant preservation solution, and transplanting the organ, to a patient to be treated for organ failure.
A log analysis device that classifies, based on a log collected from a network device, a plurality of attack target communication devices (V1, V2,..., Vm) being attacked by an attack source communication device (H1, H2,..., Hn), the log analysis device comprising: a correlation coefficient calculation unit configured to calculate, based on the log, a correlation coefficient for each of the plurality of attack target communication devices, the correlation coefficient representing a degree of correlation between the plurality of attack target communication devices in relation to a relationship between a detecting time at which the network device detected an attack and the number of the attacks per unit of time up to the detecting time; and an extraction unit configured to extract from the plurality of the attack target communication devices, as a high-correlation communication device group, a plurality of communication devices, each having the correlation coefficient equal to or greater than a prescribed threshold and being attacked from an identical attack source communication device at a detecting time at which the network device detected an attack. a correlation coefficient calculation unit configured to calculate, based on the log, a correlation coefficient for each of the plurality of attack target communication devices, the correlation coefficient representing a degree of correlation between the plurality of attack target communication devices in relation to a relationship between a detecting time at which the network device detected an attack and the number of the attacks per unit of time up to the detecting time; and an extraction unit configured to extract from the plurality of the attack target communication devices, as a high-correlation communication device group, a plurality of communication devices, each having the correlation coefficient equal to or greater than a prescribed threshold and being attacked from an identical attack source communication device at a detecting time at which the network device detected an attack.
A method for producing a diol, comprising oxidizing an olefin of formula: wherein R 5 is -CF 3, -CF 2 H, -CFH 2, -CH 2 CF 3, -CF 2 CF 3, -CH(CF 3) 2, -CF(CF 3) 2, -CH 2 C 2 F 5, -CF 2 CF 2 H, -CF 2 CFH 2, -CFHCF 3, -CFHCF 2 H, -CFHCFH 2, -CH 2 CF 2 CF 3, -CH 2 CF 2 CF 2 H or -CF 2 CF 2 CF 3; and R 6 -R 8 are each independently H, cyano, or optionally substituted alkyl, in the presence of a ruthenium compound to produce a diol of formula wherein R 5 -R 8 are as defined above:
A communication device comprising: call control means for performing call control in compliance with Session Initiation Protocol, SIP, upon communicating with a server placed on a carrier network; and first interface means for connecting to a router that relays traffic between the communication device and the carrier network, wherein the call control means is configured to acquire information from the router through the first interface means by using local protocol, the information being necessary for connecting to the server and preliminarily acquired by the router using Dynamic Host Configuration Protocol, DHCP, the local protocol differing from the SIP and the DHCP, wherein the information includes an Internet Protocol, IP, address of the server, a user identifier, and a SIP domain name. call control means for performing call control in compliance with Session Initiation Protocol, SIP, upon communicating with a server placed on a carrier network; and first interface means for connecting to a router that relays traffic between the communication device and the carrier network, wherein the call control means is configured to acquire information from the router through the first interface means by using local protocol, the information being necessary for connecting to the server and preliminarily acquired by the router using Dynamic Host Configuration Protocol, DHCP, the local protocol differing from the SIP and the DHCP, wherein the information includes an Internet Protocol, IP, address of the server, a user identifier, and a SIP domain name.