mhurhangee/patent-ind-claim-en huggingface dataset:
An aerosol generation device comprising: a case which includes an article insertion portion , configured to receive an aerosol-generating article including an aerosol-generating substrate in an inserted manner, and which has an opening formed in one surface; an opening/closing type cover which is disposed on the one surface of the case to provide an opening/closing function for the opening and which is configured to, when closing the opening , mechanically press an aerosol-generating substrate portion of the inserted aerosol-generating article ; and a heater configured to heat the inserted aerosol-generating article , wherein the heater includes a first heater configured to heat one surface of the pressed aerosol-generating substrate portion and a second heater configured to heat the opposite surface of the one surface, and wherein the opening/closing type cover is configured to, when closing the opening, mechanically press the aerosol-generating substrate portion of the inserted aerosol-generating article in a radius direction, the radius direction intersecting an axis in an insertion direction of the article insertion portion , so as to shorten the distance between a surface of the first heater where the one surface of the aerosol-generating substrate portion is heated and a surface of the second heater where the opposite side of the aerosol-generating substrate portion is heated. a case which includes an article insertion portion , configured to receive an aerosol-generating article including an aerosol-generating substrate in an inserted manner, and which has an opening formed in one surface; an opening/closing type cover which is disposed on the one surface of the case to provide an opening/closing function for the opening and which is configured to, when closing the opening , mechanically press an aerosol-generating substrate portion of the inserted aerosol-generating article ; and a heater configured to heat the inserted aerosol-generating article , wherein the heater includes a first heater configured to heat one surface of the pressed aerosol-generating substrate portion and a second heater configured to heat the opposite surface of the one surface, and wherein the opening/closing type cover is configured to, when closing the opening, mechanically press the aerosol-generating substrate portion of the inserted aerosol-generating article in a radius direction, the radius direction intersecting an axis in an insertion direction of the article insertion portion , so as to shorten the distance between a surface of the first heater where the one surface of the aerosol-generating substrate portion is heated and a surface of the second heater where the opposite side of the aerosol-generating substrate portion is heated.
A compound of formula (I): or a pharmaceutically acceptable salt, tautomer, isotopologue, or stereoisomer thereof, wherein: Ring A is an optionally substituted non-aromatic heterocyclyl; each R is independently substituted or unsubstituted C 1-3 alkyl, or halogen; and n is 0, 1, 2, 3 or 4. Ring A is an optionally substituted non-aromatic heterocyclyl; each R is independently substituted or unsubstituted C 1-3 alkyl, or halogen; and n is 0, 1, 2, 3 or 4.
An anti B-Cell Maturation Antigen (CD269) antibody comprising a heavy chain variable region of SEQ. ID. NO:23 and a light chain variable region of SEQ. ID. NO:31.
A path computation client, PCC ,comprising: a processor ; and a memory coupled to the processor for executing a plurality of programs present in the memory, wherein the programs, when executed by the processor, configures the PCC to: receive at least one packet containing at least one label and at least a branch object; decode the branch object received to: identify if the downloading of labels is corresponding to a point-to-multipoint traffic engineering label switch path, P 2 MP TE LSP; and operate as a branch node for the label switch path received in the packet; and thereby fetch at least one outgoing label specified in the branch object and associated with at least a next hop address of at least one corresponding node on the P 2 MP TE LSP. a processor ; and a memory coupled to the processor for executing a plurality of programs present in the memory, wherein the programs, when executed by the processor, configures the PCC to: receive at least one packet containing at least one label and at least a branch object; decode the branch object received to: identify if the downloading of labels is corresponding to a point-to-multipoint traffic engineering label switch path, P 2 MP TE LSP; and operate as a branch node for the label switch path received in the packet; and thereby fetch at least one outgoing label specified in the branch object and associated with at least a next hop address of at least one corresponding node on the P 2 MP TE LSP. receive at least one packet containing at least one label and at least a branch object; decode the branch object received to: identify if the downloading of labels is corresponding to a point-to-multipoint traffic engineering label switch path, P 2 MP TE LSP; and operate as a branch node for the label switch path received in the packet; and thereby identify if the downloading of labels is corresponding to a point-to-multipoint traffic engineering label switch path, P 2 MP TE LSP; and operate as a branch node for the label switch path received in the packet; and thereby fetch at least one outgoing label specified in the branch object and associated with at least a next hop address of at least one corresponding node on the P 2 MP TE LSP.
A method for removing a flaw of a treated, in particular finish-painted surface by grinding, wherein after a detection of the flaw, a flexible abrasive sheet is moved toward the surface and pressed against the flaw to be treated, characterized in that the flaw is detected by means of a sensor system, which is operationally connected to a robot arm supporting a grinding disk , wherein the abrasive sheet formed as an abrasive belt is supplied to the grinding disk and it is pressed against the flaw.
An input device suitable for a control system of a vehicle , the input device comprising at least one capacitive-sensing button , the capacitive-sensing button being provided for receiving an actuation from a user, wherein the actuation alters a capacitance value of the capacitive-sensing button , an actuation detection electrical circuit comprising a threshold value, wherein the actuation detection electrical circuit is configured to output a button actuation signal when the capacitance value exceeds the threshold value, a proximity sensor configured to generate a proximity signal when an object is provided in an area that is near the capacitive-sensing button , a proximity temperature sensor configured to provide a temperature measurement, and a processor comprising - a comparison unit configured to receive the temperature measurement and the proximity signal, wherein the comparison unit is configured to generate a comparison signal that is derived from the temperature measurement and from the proximity signal, and - an adjustment unit configured to adjust the threshold value to an adjustment value that is derived from the comparison signal, characterized in that the temperature measurement is of the surface temperature of the object in the vicinity of the capacitive-sensing button when the proximity signal is received. at least one capacitive-sensing button , the capacitive-sensing button being provided for receiving an actuation from a user, wherein the actuation alters a capacitance value of the capacitive-sensing button , an actuation detection electrical circuit comprising a threshold value, wherein the actuation detection electrical circuit is configured to output a button actuation signal when the capacitance value exceeds the threshold value, a proximity sensor configured to generate a proximity signal when an object is provided in an area that is near the capacitive-sensing button , a proximity temperature sensor configured to provide a temperature measurement, and a processor comprising - a comparison unit configured to receive the temperature measurement and the proximity signal, wherein the comparison unit is configured to generate a comparison signal that is derived from the temperature measurement and from the proximity signal, and - an adjustment unit configured to adjust the threshold value to an adjustment value that is derived from the comparison signal, characterized in that the temperature measurement is of the surface temperature of the object in the vicinity of the capacitive-sensing button when the proximity signal is received. - a comparison unit configured to receive the temperature measurement and the proximity signal, wherein the comparison unit is configured to generate a comparison signal that is derived from the temperature measurement and from the proximity signal, and - an adjustment unit configured to adjust the threshold value to an adjustment value that is derived from the comparison signal, characterized in that the temperature measurement is of the surface temperature of the object in the vicinity of the capacitive-sensing button when the proximity signal is received.
A compression and/or contention garment for lymphoedema treatment, the garment comprising a main body , the main body being made of a compression textile, the compression textile having an elasticity strictly greater than 70% in at least one direction of extensibility, the compression textile having a module in accordance with the ISO standard NF EN 14704-1 of June 2005 on the determination of the elasticity of fabrics that is greater than or equal to 3.5 N at an elongation of 40% on the fifth load curve in the direction of extensibility, the garment having at least a first targeted area , in which the garment comprises at least one layer of reinforcement textile in the first targeted area , the garment having a module in the first targeted area that is greater than the module of the compression textile, the garment having at least a second targeted area in which the garment comprises at least one layer of contention textile , the contention textile having a stiffness in at least one direction of interest greater than or equal to 30 N/(m*mm) over any normal range of use of the garment , the stiffness of the contention textile in the direction of interest being strictly greater than the stiffness of the main body in the direction of interest over a normal range of use of the garment , the stiffness of the contention textile in the direction of interest being strictly greater than the stiffness of the garment in the first targeted area in the direction of interest, more particularly by at least 100%. the garment having at least a first targeted area , in which the garment comprises at least one layer of reinforcement textile in the first targeted area , the garment having a module in the first targeted area that is greater than the module of the compression textile, the garment having at least a second targeted area in which the garment comprises at least one layer of contention textile , the contention textile having a stiffness in at least one direction of interest greater than or equal to 30 N/(m*mm) over any normal range of use of the garment , the stiffness of the contention textile in the direction of interest being strictly greater than the stiffness of the main body in the direction of interest over a normal range of use of the garment , the stiffness of the contention textile in the direction of interest being strictly greater than the stiffness of the garment in the first targeted area in the direction of interest, more particularly by at least 100%.
A method, at a server system , of providing a mobile network operator, MNO, profile to a client device , the client device having a SIM software application stored thereon so as to provide the client device with a secured software implementation of SIM card functionality, wherein the client device is configured to receive content over a broadcast network from the server system and to use a mobile network to provide a return communication path to the server system, the method comprising: based on a unique identifier of the client device, identifying a unique key, K SIM , of the SIM software application stored on the client device; based on an MNO associated with the client device, identifying an unused MNO profile associated with the MNO; encrypting the identified MNO profile so as to provide an encrypted MNO profile, wherein the encrypting comprises encrypting at least part of the identified MNO profile using K SIM ; generating an MNO profile download message comprising the encrypted MNO profile and the unique identifier of the client device; and broadcasting the MNO profile download message over the broadcast network so as to enable the client device to access the MNO profile download message. based on a unique identifier of the client device, identifying a unique key, K SIM , of the SIM software application stored on the client device; based on an MNO associated with the client device, identifying an unused MNO profile associated with the MNO; encrypting the identified MNO profile so as to provide an encrypted MNO profile, generating an MNO profile download message comprising the encrypted MNO profile and the unique identifier of the client device; and broadcasting the MNO profile download message over the broadcast network so as to enable the client device to access the MNO profile download message.
A method of fabricating a semiconductor device, comprising: - providing a semiconductor substrate having a first type of conductivity; - forming a first layer on the substrate , said first layer having the first type of conductivity and being more lightly doped than the substrate ; - forming at least one trench in the first layer ; - lining a bottom surface and sidewalls of the at least one trench with a first dielectric layer ; - etching back the first dielectric layer from the bottom surface of the at least one trench but not from the sidewalls of the at least one trench ; - implanting a dopant of the second conductivity type into the first layer through the exposed bottom surface of the at least one trench and through the portions of the sidewalls adjacent to the bottom of the at least one trench and performing a diffusion step so as to form a field reducing region surrounding the bottom of the at least one trench ; - removing the first dielectric layer from the sidewalls of the at least one trench ; - lining a bottom surface and sidewalls of the at least one trench with a second dielectric layer ; - filling the at least one trench with a conducting material ; - forming a second layer having the second conductivity type in the first layer , the second layer being located adjacent to at least one side of the trench and being lightly doped; - forming a metal layer over the second layer and the conducting material so that a Schottky contact is formed between the metal layer and the second layer ; - forming a first electrode over the metal layer and a second electrode on a backside of the substrate . - providing a semiconductor substrate having a first type of conductivity; - forming a first layer on the substrate , said first layer having the first type of conductivity and being more lightly doped than the substrate ; - forming at least one trench in the first layer ; - lining a bottom surface and sidewalls of the at least one trench with a first dielectric layer ; - etching back the first dielectric layer from the bottom surface of the at least one trench but not from the sidewalls of the at least one trench ; - implanting a dopant of the second conductivity type into the first layer through the exposed bottom surface of the at least one trench and through the portions of the sidewalls adjacent to the bottom of the at least one trench and performing a diffusion step so as to form a field reducing region surrounding the bottom of the at least one trench ; - removing the first dielectric layer from the sidewalls of the at least one trench ; - lining a bottom surface and sidewalls of the at least one trench with a second dielectric layer ; - filling the at least one trench with a conducting material ; - forming a second layer having the second conductivity type in the first layer , the second layer being located adjacent to at least one side of the trench and being lightly doped; - forming a metal layer over the second layer and the conducting material so that a Schottky contact is formed between the metal layer and the second layer ; - forming a first electrode over the metal layer and a second electrode on a backside of the substrate .
A method of receiving a downlink control channel by a user equipment in a wireless communication system, the method comprising: receiving PDCCH by monitoring candidate Physical Downlink Control Channels, PDCCHs, configured with Control Channel Elements, CCEs, of which number is related to an aggregation level, wherein CCEs for candidate PDCCHs of a higher aggregation level include all CCEs for candidate PDCCHs of a lower aggregation level , the method characterized in that : the CCEs for the candidate PDCCHs of the lower aggregation level included in each of the candidate PDCCHs of the higher aggregation level are determined based on a matrix based on a size of the higher aggregation level and the number of the candidate PDCCHs of the higher aggregation level, a size of a row of the matrix is related to the size of the higher aggregation level and wherein a size of a column of the matrix is related to the number of the candidate PDCCHs of the higher aggregation level, and the CCEs are arranged on each element configuring the matrix with reference to indexes of the CCEs and wherein the CCEs arranged in the same column are included in candidate PDCCH of a same higher aggregation level. receiving PDCCH by monitoring candidate Physical Downlink Control Channels, PDCCHs, configured with Control Channel Elements, CCEs, of which number is related to an aggregation level, wherein CCEs for candidate PDCCHs of a higher aggregation level include all CCEs for candidate PDCCHs of a lower aggregation level , the method characterized in that : the CCEs for the candidate PDCCHs of the lower aggregation level included in each of the candidate PDCCHs of the higher aggregation level are determined based on a matrix based on a size of the higher aggregation level and the number of the candidate PDCCHs of the higher aggregation level, a size of a row of the matrix is related to the size of the higher aggregation level and wherein a size of a column of the matrix is related to the number of the candidate PDCCHs of the higher aggregation level, and the CCEs are arranged on each element configuring the matrix with reference to indexes of the CCEs and wherein the CCEs arranged in the same column are included in candidate PDCCH of a same higher aggregation level. the CCEs for the candidate PDCCHs of the lower aggregation level included in each of the candidate PDCCHs of the higher aggregation level are determined based on a matrix based on a size of the higher aggregation level and the number of the candidate PDCCHs of the higher aggregation level, a size of a row of the matrix is related to the size of the higher aggregation level and wherein a size of a column of the matrix is related to the number of the candidate PDCCHs of the higher aggregation level, and the CCEs are arranged on each element configuring the matrix with reference to indexes of the CCEs and wherein the CCEs arranged in the same column are included in candidate PDCCH of a same higher aggregation level.
A mechanical circulatory support system comprising: a controller configured to generate control signals comprising at least one performance parameter and to repeatingly transmit the control signals within consecutive time periods; and an implantable blood pump communicatively coupled to the controller , the blood pump comprising: an implantable housing ; a rotary motor located in the implantable housing; and a control unit located in the implantable housing and communicatively coupled with the rotary motor and configured to: receive the control signals from the controller ; track the consecutive time periods; and retrieve at least one back-up parameter if a control signal is not received from the controller within a predetermined time or number of the consecutive time periods to ensure operation of the implantable blood pump during a communication interruption or loss. a controller configured to generate control signals comprising at least one performance parameter and to repeatingly transmit the control signals within consecutive time periods; and an implantable blood pump communicatively coupled to the controller , the blood pump comprising: an implantable housing ; a rotary motor located in the implantable housing; and a control unit located in the implantable housing and communicatively coupled with the rotary motor and configured to: receive the control signals from the controller ; track the consecutive time periods; and retrieve at least one back-up parameter if a control signal is not received from the controller within a predetermined time or number of the consecutive time periods to ensure operation of the implantable blood pump during a communication interruption or loss. an implantable housing ; a rotary motor located in the implantable housing; and a control unit located in the implantable housing and communicatively coupled with the rotary motor and configured to: receive the control signals from the controller ; track the consecutive time periods; and retrieve at least one back-up parameter if a control signal is not received from the controller within a predetermined time or number of the consecutive time periods to ensure operation of the implantable blood pump during a communication interruption or loss. receive the control signals from the controller ; track the consecutive time periods; and retrieve at least one back-up parameter if a control signal is not received from the controller within a predetermined time or number of the consecutive time periods to ensure operation of the implantable blood pump during a communication interruption or loss.