mhurhangee/ep-ind-claims huggingface dataset:
An accessory assembly comprising: a housing having a front surface and an opposing rear surface; a screen disposed on the rear surface of the housing; a hanger cooperating with the housing including a central portion and first and second shoulder portions extending from opposing ends of the central portion, wherein the central portion includes a cavity at least partially formed therein between opposing sidewalls extending between the first and second shoulder portions of the hanger; and an insert removably connected to the cavity in the central portion of the hanger, characterised in that the insert defines a channel configured to receive and releasably engage an object therein such that the object is at least partially exposed above the screen when positioned in the insert. a housing having a front surface and an opposing rear surface; a screen disposed on the rear surface of the housing; a hanger cooperating with the housing including a central portion and first and second shoulder portions extending from opposing ends of the central portion, wherein the central portion includes a cavity at least partially formed therein between opposing sidewalls extending between the first and second shoulder portions of the hanger; and an insert removably connected to the cavity in the central portion of the hanger, characterised in that the insert defines a channel configured to receive and releasably engage an object therein such that the object is at least partially exposed above the screen when positioned in the insert.
Production system, in particular for the free-form bending of work pieces to be manufactured out of sheet metal or plates, comprising at least one bending tool, which at least one bending tool comprises at least one bending punch and at least one bending die; at least one tool store for multiple bending tools; at least one bending machine, in particular a bending press with a machine frame and press beams (7, 8) and tool sockets (9, 10) arranged or constructed on the press beams (7, 8) for the at least one bending tool; at least one manipulation device by which the at least one bending tool is moved by a travelling movement executed by the manipulation device from a tool store position located in the region of the tool store along a transport path to at least one machine operating position located in the region of the bending machine between the tool store and the bending machine, in particular its tool sockets (9, 10); characterised by the at least one manipulation device having arranged or constructed on it at least one first coupling element and the at least one bending machine having arranged or constructed on it at least one second coupling element, and that the at least one manipulation device, when in one of the machine operating positions, has coupled the at least one first coupling element of the manipulation device to at least one of the second coupling elements of the bending machine and in this way the at least one manipulation device is fixed in position relative to the at least one bending machine and thus a reference position is set.
A bearing arrangement for a reciprocating refrigeration compressor of the type which includes a crankcase defining a bearing hub, in which is housed a crankshaft incorporating an eccentric end portion, projecting outwardly from a first end of the bearing hub, and a free end portion, projecting outwardly from a second end of the bearing hub, said arrangement being characterized in that the bearing hub comprises a first and a second bearing portion (31, 32), spaced apart by a circumferential recess, the crankshaft comprising a first and a second support portion (41, 42), spaced apart by a circumferential recess which is axially offset in relation to the circumferential recess of the bearing hub, at least one of said bearing portions (31, 32) and of support portions (41, 42) presenting an axial extension superior to that required for radially bearing the crankshaft, part of the axial extension of the first support portion and of the second bearing portion defining, with a confronting axial extension of the first bearing portion and of the second support portion, respectively, a first and a second radial bearing region (M1, M2) of the crankshaft.
A demoulding unit for an injection-molded component comprising a pot-like recess, the recess comprising at least one projection on an inner side, said demoulding unit comprising a movable inner demoulding element having a front side for forming the burr-free bottom side of the pot-like recess, at least one projection demoulding element (32, 34) arranged on an outer side of the inner demoulding element, and at least one holding/releasing element connected to the outer side of the inner demoulding element, provided to hold the at least one projection demoulding element in an injection position and to release the at least one projection demoulding element (32, 34) for demoulding by moving the inner demoulding element, characterized in that the inner demoulding element comprises, on the outer side, a displacement element cooperating with the at least one projection demoulding element (32, 34) in such a manner that, when the inner demoulding element is pulled out from the recess, the displacement element causes a helical movement of the at least one projection demoulding element (32, 34).
A transmission configuration method, comprising: receiving, by a terminal, one or more synchronization signal blocks, SSBs, from a base station; detecting, by the terminal, one or more first SSBs capable of triggering random access from the one or more SSBs; sending, by the terminal, to the base station one or more first messages for initiating the random access and the one or more first messages are respectively corresponding to the one or more first SSBs, so that the base station configures a transmission configuration indication, TCI, state set for the terminal according to the one or more first messages, characterized in receiving, by the terminal, a second message sent by the base station and used for performing random access feedback with respect to a second SSB, wherein the second SSB is any one of the one or more first SSBs; sending, by the terminal, a third message for characterizing contention resolution to the base station according to the second message; receiving, by the terminal, a fourth message sent by the base station and used for characterizing success of the contention resolution; and when or after receiving the fourth message, receiving, by the terminal, a radio resource control, RRC, signaling sent by the base station, wherein the RRC signaling comprises the TCI state set configured by the base station for the terminal. receiving, by a terminal, one or more synchronization signal blocks, SSBs, from a base station; detecting, by the terminal, one or more first SSBs capable of triggering random access from the one or more SSBs; sending, by the terminal, to the base station one or more first messages for initiating the random access and the one or more first messages are respectively corresponding to the one or more first SSBs, so that the base station configures a transmission configuration indication, TCI, state set for the terminal according to the one or more first messages, characterized in receiving, by the terminal, a second message sent by the base station and used for performing random access feedback with respect to a second SSB, wherein the second SSB is any one of the one or more first SSBs; sending, by the terminal, a third message for characterizing contention resolution to the base station according to the second message; receiving, by the terminal, a fourth message sent by the base station and used for characterizing success of the contention resolution; and when or after receiving the fourth message, receiving, by the terminal, a radio resource control, RRC, signaling sent by the base station, wherein the RRC signaling comprises the TCI state set configured by the base station for the terminal.
An adapter for use with a dosed drug delivery device having a pierceable septum, the adapter comprising: (a) a connector including an attachment configuration for attachment to the dosed drug delivery device and a hollow needle deployed for piercing the septum; (b) a liquid delivery interface mechanically linked to said connector, said liquid delivery interface including a skin contact edge and at least one hollow microneedle deployed adjacent to said skin contact edge, said microneedles projecting away from said skin contact edge; and (c) a flow path arrangement interconnecting said needle and said array of hollow microneedles, characterised in that said at least one hollow microneedle is integrally formed with a substrate, said microneedle having at least one wall standing upright from a surface, an inclined surface intersecting with said at least one wall, and a flow channel passing through said substrate and intersecting with said inclined surface, said at least one microneedle being deployed with said inclined surface facing towards said skin contact edge. (a) a connector including an attachment configuration for attachment to the dosed drug delivery device and a hollow needle deployed for piercing the septum; (b) a liquid delivery interface mechanically linked to said connector, said liquid delivery interface including a skin contact edge and at least one hollow microneedle deployed adjacent to said skin contact edge, said microneedles projecting away from said skin contact edge; and (c) a flow path arrangement interconnecting said needle and said array of hollow microneedles,
An apparatus for controlling an environmental condition inside a housing, the apparatus comprising: a thermoelectric cooling unit comprising a first side facing away from an inner surface of the housing and a second side facing the inner surface of the housing; a capillary unit comprising a first part and a second part, wherein the first part and the second part are integrally formed, and wherein the first part is coupled to the thermoelectric cooling unit and is positioned inside the housing, and wherein the second part is positioned outside the housing; a sensor positioned inside the housing and configured to sense a humidity value and a temperature value inside the housing; and a controller configured to communicate with the sensor and the thermoelectric cooling unit, wherein the controller is configured to receive information regarding the humidity value and the temperature value from the sensor; wherein the controller is further configured to, if the humidity value is greater than a humidity threshold and the temperature value is greater than a temperature threshold, enable the thermoelectric cooling unit to remove moisture in the housing, and wherein the first part of the capillary unit is configured to collect the removed moisture and to transmit the removed moisture to the second part of the capillary unit. a thermoelectric cooling unit comprising a first side facing away from an inner surface of the housing and a second side facing the inner surface of the housing; a capillary unit comprising a first part and a second part, wherein the first part and the second part are integrally formed, and wherein the first part is coupled to the thermoelectric cooling unit and is positioned inside the housing, and wherein the second part is positioned outside the housing; a sensor positioned inside the housing and configured to sense a humidity value and a temperature value inside the housing; and a controller configured to communicate with the sensor and the thermoelectric cooling unit, wherein the controller is configured to receive information regarding the humidity value and the temperature value from the sensor; wherein the controller is further configured to, if the humidity value is greater than a humidity threshold and the temperature value is greater than a temperature threshold, enable the thermoelectric cooling unit to remove moisture in the housing, and wherein the first part of the capillary unit is configured to collect the removed moisture and to transmit the removed moisture to the second part of the capillary unit.
Process for the preparation of an hydraulic composition based on cement comprising the addition of an appropriate amount of an admixture in the form of an aqueous dispersion, comprising: - mineral nanoparticles; - an accelerator for setting of hydraulic compositions; and - a dispersant polymer, wherein the pH is comprised between 2 and 11 and wherein the mineral nanoparticles are selected from silica, alumina and calcium carbonate nanoparticles, optionally modified, to the hydraulic composition. - mineral nanoparticles; - an accelerator for setting of hydraulic compositions; and - a dispersant polymer,
A method performed by a wireless communication device for monitoring for a paging message (2061, 2062) from a core network node in a wireless communications network, the method comprising: monitoring (207, 304) for the paging message (2061, 2062) at one or more paging occasions during a time period for monitoring paging, wherein the start of the time period is based on an instant of time when the wireless communication device registers to the core network node, the method characterized in that it further comprises the steps of: starting (202a, 302) a discontinuous reception timer for an extended idle mode at said instant of time when the wireless communication device registers to the core network node, wherein the monitoring (207, 304) for the paging message (2061, 2062) is performed when the discontinuous reception timer expires, and resetting (203a, 303) the discontinuous reception timer in response to a successful procedure requiring Non-Access Stratum, NAS, layer communication between the wireless communication device and the core network node, so that the discontinuous reception timer is resynchronized between the wireless communication device and the core network node. monitoring (207, 304) for the paging message (2061, 2062) at one or more paging occasions during a time period for monitoring paging, wherein the start of the time period is based on an instant of time when the wireless communication device registers to the core network node, the method characterized in that it further comprises the steps of: starting (202a, 302) a discontinuous reception timer for an extended idle mode at said instant of time when the wireless communication device registers to the core network node, wherein the monitoring (207, 304) for the paging message (2061, 2062) is performed when the discontinuous reception timer expires, and resetting (203a, 303) the discontinuous reception timer in response to a successful procedure requiring Non-Access Stratum, NAS, layer communication between the wireless communication device and the core network node, so that the discontinuous reception timer is resynchronized between the wireless communication device and the core network node.
A liquid circulating device for a liquid ejecting device which comprises a liquid replenishment tank and a liquid ejecting head, the liquid circulating device comprising: a first pump configured to supply a liquid of the liquid replenishment tank to the liquid ejecting head; a second pump configured to collect the liquid from the liquid ejecting head and to supply the liquid to the liquid replenishment tank; a filter provided in a flow path between the liquid replenishment tank and the liquid ejecting head; and characterized by a buffer tank that is connected to a flow path between the filter and the liquid ejecting head and a flow path between the liquid ejecting head and the second pump and to which the liquid ejected from the first pump flows in; and a pressure sensor configured to detect an internal pressure of the buffer tank; and a control unit configured to determine clogging of the filter based on a drive voltage of the second pump during adjustment circulation where a nozzle surface pressure of the liquid ejecting head is adjusted based on the pressure of the buffer tank. a first pump configured to supply a liquid of the liquid replenishment tank to the liquid ejecting head; a second pump configured to collect the liquid from the liquid ejecting head and to supply the liquid to the liquid replenishment tank; a filter provided in a flow path between the liquid replenishment tank and the liquid ejecting head; and characterized by a buffer tank that is connected to a flow path between the filter and the liquid ejecting head and a flow path between the liquid ejecting head and the second pump and to which the liquid ejected from the first pump flows in; and a pressure sensor configured to detect an internal pressure of the buffer tank; and a control unit configured to determine clogging of the filter based on a drive voltage of the second pump during adjustment circulation where a nozzle surface pressure of the liquid ejecting head is adjusted based on the pressure of the buffer tank.
A primer set for detecting Chlamydia trachomatis comprising: a first primer pair composed of a combination of a forward primer consisting of a base sequence represented by SEQ ID NO: 5 and a reverse primer consisting of a base sequence represented by SEQ ID NO: 6.
A method of designing a time dependent function k m (t) for a two-dimensional spiral k-space trajectory k m with a rotation angle φ(t), where m stands for the spatial dimension indices x, y, of a magnetic resonance imaging, =MRI, experiment carried out on an MRI system, wherein the trajectory k m is generated by applying a time varying waveform g m (t) of a gradient magnetic field, the method taking into account gradient hardware aspects comprising - a gradient magnitude upper limit G and - a gradient slew rate upper limit S of the MRI system such that these limits G, S are not exceeded at any time of the scanning of the k-space trajectory k m, characterized in that the method further takes into account another gradient hardware aspect that is a frequency upper limit F in such a way that an instantaneous frequency f of the gradient waveform g m (t) does not exceed the frequency limit F, which is characteristic for a gradient hardware of the MRI system, at any time of the scanning of the k-space trajectory k m, wherein F is chosen such that all frequency components below F have a frequency response of the gradient hardware of at least 50%, and that the time course of the time dependent function k m (t) is separated into three subsequent domains, in each of which the time dependent function k m (t) has a different description with at least one free parameter, such that: - when designing the time dependent function k m (t) in each domain, the at least one free parameter is chosen in a way to obey only one of said upper limits G, S and F in that domain, thereby resulting in the three domains consisting of a gradient magnitude limit domain, a slew rate limit domain, and a frequency limit domain, respectively, in each of which the resulting gradient waveform g m (t) does not exceed one of said upper limits G, S and F, respectively; and - when a respective upper limit is obeyed in its respective domain, said respective limit is automatically obeyed in the other two domains as well and may therefore be ignored when designing the time dependent function k m (t) in the other two domains. - a gradient magnitude upper limit G and - a gradient slew rate upper limit S - when designing the time dependent function k m (t) in each domain, the at least one free parameter is chosen in a way to obey only one of said upper limits G, S and F in that domain, thereby resulting in the three domains consisting of a gradient magnitude limit domain, a slew rate limit domain, and a frequency limit domain, respectively, in each of which the resulting gradient waveform g m (t) does not exceed one of said upper limits G, S and F, respectively; and - when a respective upper limit is obeyed in its respective domain, said respective limit is automatically obeyed in the other two domains as well and may therefore be ignored when designing the time dependent function k m (t) in the other two domains.
A system of cardiac pacing comprising: a) processing means for determining a baseline rhythm, the baseline rhythm includes a baseline atria! event and a baseline right ventricular event from an implanted cardiac lead or a leadless device, and for determining a pre-excitation interval from the baseline atrial event and the baseline RV event, characterised in that said processing means is further configured for determining a plurality of activation times from the plurality of body-surface electrodes; whereby said system of cardiac pacing further comprises b) processing means for determining whether a time interval measured from an atrial event to a RV event is disparate from another time interval measured from the atrial event to an earliest RV activation time of the plurality of activation times; c) processing means for applying a correction factor to the pre-excitation interval to obtain a corrected pre-excitation interval in response to determining the RV event is disparate from the earliest RV activation time; and d) processing means for configuring the processor to signal the pulse generator to deliver electrical stimuli to a left ventricle using the corrected pre-excitation interval before the RV sensing time. a) processing means for determining a baseline rhythm, the baseline rhythm includes a baseline atria! event and a baseline right ventricular event from an implanted cardiac lead or a leadless device, and for determining a pre-excitation interval from the baseline atrial event and the baseline RV event, characterised in that said processing means is further configured for determining a plurality of activation times from the plurality of body-surface electrodes; whereby said system of cardiac pacing further comprises b) processing means for determining whether a time interval measured from an atrial event to a RV event is disparate from another time interval measured from the atrial event to an earliest RV activation time of the plurality of activation times; c) processing means for applying a correction factor to the pre-excitation interval to obtain a corrected pre-excitation interval in response to determining the RV event is disparate from the earliest RV activation time; and d) processing means for configuring the processor to signal the pulse generator to deliver electrical stimuli to a left ventricle using the corrected pre-excitation interval before the RV sensing time.
Lock for locking a door or a window, with a lock follower and a lock bar co-operating with a tumbler, which lock bar is able to be displaced via a pressure-operated mechanism or a key-operated mechanism, whereby in the pressure-operated mechanism, in a first drive train (11, 12, 13), the follower is in operative connection with the tumbler, and in a second drive train (11, 14, 15, 16) the follower is in operative connection with the lock bar, and whereby the first drive train (11, 12, 13) has a follower /tumbler intermediate member, that, on the one hand, is in contact with the follower and, on the other hand, is in contact with the tumbler, characterized in that the follower /tumbler intermediate member has a first intermediate member stop (12a, 12c) and a second intermediate member stop (12b, 12d), and in that the follower has a first follower stop (11g, 11i) and a second follower stop (11h, 11j), whereby the first follower stop (11g, 11i) is able to co-operate with the first intermediate member stop (12a, 12c) when the pressing element is moved in a first direction, whereby the second follower stop (11h, 11j) is able to co-operate with the second intermediate member stop (12b, 12d) when the pressing element is moved in a second direction, and whereby the intermediate member is moved in the same direction both with action of the follower on the first intermediate member stop (12a, 12c) and also with action of the follower on the second intermediate member stop (12b, 12d).