mhurhangee/patent-ind-claim-en huggingface dataset:
An interconnectable heating blanket comprising: a first face; a second face; and a plurality of sides , wherein at least one side of the plurality of sides comprises a power connector , wherein a first side has a first flap of polymeric material overhanging a first edge , and wherein a second side has a second ledge with said power connector incorporated into said second ledge , and wherein said first interconnectable heating blanket comprises more than one type of mechanical coupler. a first face; a second face; and a plurality of sides , wherein at least one side of the plurality of sides comprises a power connector , wherein a first side has a first flap of polymeric material overhanging a first edge , and wherein a second side has a second ledge with said power connector incorporated into said second ledge , and wherein said first interconnectable heating blanket comprises more than one type of mechanical coupler.
Device for opening and/closing and for locking a closed state of a locking device , for the at least partial closing of an opening in a room of a casement window and/or of a tilt window or a door with a leaf and a frame , wherein the device comprises a drive unit and a force transfer means , transferring the drive force onto the closing device , which can be coupled to a locking element by means of a locking pin of the locking device , and wherein a driver element of the force transfer means , facing towards the closing device , can be deflected by a deflection element of the device , starting from a first movement direction for the closing of the locking device into a second movement direction for actuating the locking element of the locking device , wherein the driver element , at the drawing of the force transfer means into a housing of the device , follows an arc-shaped section of a guide track of the housing to the force transfer means , characterized in that the device can be arranged so as to lie covered in a rebate space between the frame and the leaf of the window or the door, that, at the entry of a guide member of the force transfer means , connected by a joint to the driver element , into the arc-shaped section , the driver element can be pivoted by an angle of close to 90° about the axis of the locking pin , and, with the further drawing inwards of the guide member , the driver element thereby, at the further engagement of the locking pin , actuates the locking element of the locking device .
A pocket spring core having at least one first zone and at least one second zone , wherein the first zone has at least two rows of a first spring strand section and at least one of the second zone(s) has at least one row or line of a second spring strand section , wherein the second spring strand section has at least two layers located vertically one over the other of in each case a plurality of helical wound first compression springs in a first, upper layer and second compression springs in a second, lower layer and at least one row of a third spring strand section , characterized in that at least one of the second zone(s) of the pocket spring core has at least one channel-like depression .
An adapter assembly, comprising: a body having a proximal portion and a distal portion, wherein the proximal portion is configured to couple to a handle assembly and the distal portion is configured to couple to a loading unit assembly; an oscillator disposed within the body and configured to output a voltage signal; and a sensor disposed within the body, characterised that said sensor is configured to determine a connection status of a loading unit assembly coupled to the body based on a change in the voltage signal. a body having a proximal portion and a distal portion, wherein the proximal portion is configured to couple to a handle assembly and the distal portion is configured to couple to a loading unit assembly; an oscillator disposed within the body and configured to output a voltage signal; and a sensor disposed within the body, characterised that said sensor is configured to determine a connection status of a loading unit assembly coupled to the body based on a change in the voltage signal.
A system for wirelessly controlling a dressing interface for providing negative pressure therapy at a tissue site , the dressing interface including a housing having a therapy cavity and a component cavity , the system comprising: a core module disposed in the housing comprising: a circuit board coupled to the housing and forming a portion of a wall separating the therapy cavity and the component cavity; a sensor mounted on the circuit board and disposed within the therapy cavity and configured to collect physical parameter data indicative of physical properties of fluids from the tissue site; a processor mounted on the circuit board and disposed within the component cavity, wherein the processor is coupled to the sensor and configured to read the physical parameter data from the sensor; a wireless transceiver mounted on the circuit board and disposed within the component cavity, wherein the wireless transceiver is coupled to the processor and configured to communicate with a therapy device; and at least one peripheral device coupled to the processor; and a first peripheral interface coupled to the core module and configured to communicate with the processor. a core module disposed in the housing comprising: a circuit board coupled to the housing and forming a portion of a wall separating the therapy cavity and the component cavity; a sensor mounted on the circuit board and disposed within the therapy cavity and configured to collect physical parameter data indicative of physical properties of fluids from the tissue site; a processor mounted on the circuit board and disposed within the component cavity, wherein the processor is coupled to the sensor and configured to read the physical parameter data from the sensor; a wireless transceiver mounted on the circuit board and disposed within the component cavity, wherein the wireless transceiver is coupled to the processor and configured to communicate with a therapy device; and at least one peripheral device coupled to the processor; and a circuit board coupled to the housing and forming a portion of a wall separating the therapy cavity and the component cavity; a sensor mounted on the circuit board and disposed within the therapy cavity and configured to collect physical parameter data indicative of physical properties of fluids from the tissue site; a processor mounted on the circuit board and disposed within the component cavity, wherein the processor is coupled to the sensor and configured to read the physical parameter data from the sensor; a wireless transceiver mounted on the circuit board and disposed within the component cavity, wherein the wireless transceiver is coupled to the processor and configured to communicate with a therapy device; and at least one peripheral device coupled to the processor; and a first peripheral interface coupled to the core module and configured to communicate with the processor.
A hybrid polyester-fluorocarbon powder coating composition which is a dry blend of a polyester powder coating composition A and a fluorocarbon powder coating composition B, wherein: - polyester powder coating composition A comprises a first polyester polymer and a curing agent for the first polyester polymer; and - fluorocarbon powder coating composition B comprises a fluorocarbon polymer, a curing agent for the fluorocarbon polymer, and a second polyester polymer and a curing agent for the second polyester polymer; wherein the weight ratio of polyester powder coating composition A and fluorocarbon powder coating composition B is in the range of from 25:75 to 75:25, wherein the first polyester polymer is a carboxyl functional polymer having an acid value in the range from 18 to 70 mg KOH/g polymer and wherein the second polyester polymer is a hydroxyl functional polyester polymer having a hydroxyl value in the range of from 70 to 350 mg KOH/g polymer. - polyester powder coating composition A comprises a first polyester polymer and a curing agent for the first polyester polymer; and - fluorocarbon powder coating composition B comprises a fluorocarbon polymer, a curing agent for the fluorocarbon polymer, and a second polyester polymer and a curing agent for the second polyester polymer;
A laminated body comprising: a substrate; an anchor layer on a surface of said substrate; and a fine cellulose fiber layer on said anchor layer, said fine cellulose fiber layer containing a fine cellulose fiber having carboxy groups, wherein said anchor layer contains a resin having at least one functional group selected from the group consisting of carboxy group, sulfonate group, amino group and hydroxyl group, wherein said fine cellulose fiber is oxidized cellulose in which said carboxy groups are introduced by an oxidation reaction and the content of said carboxy groups in said cellulose fiber is in the range of 0.1-5.5 mmol/g, wherein said fine cellulose fiber has a number average fiber diameter in the range of 0.001-0.200 μm. a substrate; an anchor layer on a surface of said substrate; and a fine cellulose fiber layer on said anchor layer, said fine cellulose fiber layer containing a fine cellulose fiber having carboxy groups, wherein said anchor layer contains a resin having at least one functional group selected from the group consisting of carboxy group, sulfonate group, amino group and hydroxyl group, wherein said fine cellulose fiber is oxidized cellulose in which said carboxy groups are introduced by an oxidation reaction and the content of said carboxy groups in said cellulose fiber is in the range of 0.1-5.5 mmol/g, wherein said fine cellulose fiber has a number average fiber diameter in the range of 0.001-0.200 μm.
A method of analyzing a cut edge created by a machine tool , comprising the method steps: A) creating the cut edge using at least one cutting parameter with the machine tool ; B) creating at least one image (32, 32a-c) of the cut edge with a camera ; C) scanning the image (32, 32a-c) of the cut edge , wherein the image (32, 32a-c) comprises a plurality of image pixels (42a, b); characterized by the method steps: D) analyzing the image (32, 32a-c) with a trained neuronal network to determine the at least one cutting parameter ; E) backpropagation of the neuronal network to determine the relevance of the image pixels (42a, b) analyzed to determine the determined cutting parameters ; F) output of the image (32, 32a-c) with identification of the particularly relevant and/or particularly irrelevant image pixels (42a, b) determined in method step E); wherein steps C) to F) are performed by a computer. A) creating the cut edge using at least one cutting parameter with the machine tool ; B) creating at least one image (32, 32a-c) of the cut edge with a camera ; C) scanning the image (32, 32a-c) of the cut edge , wherein the image (32, 32a-c) comprises a plurality of image pixels (42a, b); D) analyzing the image (32, 32a-c) with a trained neuronal network to determine the at least one cutting parameter ; E) backpropagation of the neuronal network to determine the relevance of the image pixels (42a, b) analyzed to determine the determined cutting parameters ; F) output of the image (32, 32a-c) with identification of the particularly relevant and/or particularly irrelevant image pixels (42a, b) determined in method step E);
A method performed by a wireless device for managing a hybrid automatic repeat request, HARQ, process for grant-free uplink transmissions, wherein a grant-free transmission corresponds to a transmission using semi-statically pre-configured resources with a periodicity, without dynamic scheduling and without a configured grant used in a Long Term Evolution, LTE, semi-persistent scheduling, SPS, framework, the uplink transmission being allocated a process identification, PID, which has a predefined mapping to a time slot, the method comprising: transmitting data to a network node during a first time slot corresponding to a first PID according to a first mapping (S112); receiving a HARQ feedback signal indicating one of an acknowledgement, ACK, and a non-acknowledgement, NACK, associated with the first PID (S114); and when a NACK is received: receiving an indication of a second time slot for a retransmission (S118), wherein receiving an indication of a second time slot for retransmission comprises receiving an index to identify the second time slot corresponding to the transmission to which the HARQ feedback corresponds (S121D) and wherein the second time slot is earlier in time than the next predefined timeslot for retransmission for the first PID; and retransmitting the data corresponding to the first PID during the second time slot (S120) wherein the retransmitted data contains an index identifying the data as retransmitted data. transmitting data to a network node during a first time slot corresponding to a first PID according to a first mapping (S112); receiving a HARQ feedback signal indicating one of an acknowledgement, ACK, and a non-acknowledgement, NACK, associated with the first PID (S114); and when a NACK is received: receiving an indication of a second time slot for a retransmission (S118), wherein receiving an indication of a second time slot for retransmission comprises receiving an index to identify the second time slot corresponding to the transmission to which the HARQ feedback corresponds (S121D) and wherein the second time slot is earlier in time than the next predefined timeslot for retransmission for the first PID; and retransmitting the data corresponding to the first PID during the second time slot (S120) wherein the retransmitted data contains an index identifying the data as retransmitted data. receiving an indication of a second time slot for a retransmission (S118), wherein receiving an indication of a second time slot for retransmission comprises receiving an index to identify the second time slot corresponding to the transmission to which the HARQ feedback corresponds (S121D) and wherein the second time slot is earlier in time than the next predefined timeslot for retransmission for the first PID; and retransmitting the data corresponding to the first PID during the second time slot (S120) wherein the retransmitted data contains an index identifying the data as retransmitted data.
A material stack for a spin transfer torque memory device, the material stack comprising: a magnetic junction comprising: a free magnetic material layer comprising Co, Fe, and B; a fixed magnetic material layer comprising Co, Fe, and B; and a tunnel barrier layer comprising Mg and O; a first layer comprising oxygen, the first layer on the free magnetic material layer ; a second layer comprising Co, Fe and B, the second layer on the first layer ; a third layer on the second layer , wherein the third layer comprises not less than 99% tungsten by weight, and having a thickness of not less than 1.5nm and not more than 2.5 nm; a synthetic antiferromagnetic (SAF) structure between the fixed magnetic material layer and a first metal electrode , and a second metal electrode comprising a first electrode layer comprising ruthenium on the third layer and a second electrode layer comprising tantalum on the first electrode layer. a magnetic junction comprising: a free magnetic material layer comprising Co, Fe, and B; a fixed magnetic material layer comprising Co, Fe, and B; and a tunnel barrier layer comprising Mg and O; a free magnetic material layer comprising Co, Fe, and B; a fixed magnetic material layer comprising Co, Fe, and B; and a tunnel barrier layer comprising Mg and O; a first layer comprising oxygen, the first layer on the free magnetic material layer ; a second layer comprising Co, Fe and B, the second layer on the first layer ; a third layer on the second layer , wherein the third layer comprises not less than 99% tungsten by weight, and having a thickness of not less than 1.5nm and not more than 2.5 nm; a synthetic antiferromagnetic (SAF) structure between the fixed magnetic material layer and a first metal electrode , and a second metal electrode comprising a first electrode layer comprising ruthenium on the third layer and a second electrode layer comprising tantalum on the first electrode layer.
A method of displaying a menu on a touch screen of a mobile device , the method comprising: detecting an object generating touch event on a menu icon selected from at least one menu displayed on the touch screen , wherein the at least one menu includes a plurality of menu icons (203-1, 203-2, 204, 203-3, 203-4, 203-5) for performing a plurality of functions of an application currently being executed in the mobile device , and the selected menu icon is for performing a function of the plurality of functions of the application; when the object generating event is detected, generating and displaying , on the touch screen, an object configured to perform the same function as the function of the selected menu icon ; removing from the touch screen the at least one menu ; detecting an object executing event for the object while the object is displayed on the touch screen and the at least one menu is removed; and in response to detecting the object executing event for the object , performing the function of the object . detecting an object generating touch event on a menu icon selected from at least one menu displayed on the touch screen , wherein the at least one menu includes a plurality of menu icons (203-1, 203-2, 204, 203-3, 203-4, 203-5) for performing a plurality of functions of an application currently being executed in the mobile device , and the selected menu icon is for performing a function of the plurality of functions of the application; when the object generating event is detected, generating and displaying , on the touch screen, an object configured to perform the same function as the function of the selected menu icon ; removing from the touch screen the at least one menu ; detecting an object executing event for the object while the object is displayed on the touch screen and the at least one menu is removed; and in response to detecting the object executing event for the object , performing the function of the object .
An input circuit comprising: a pull-up resistor having one end thereof connected to an input terminal; a switch unit (T 1 ) for establishing/blocking a connection between the other end of the pull-up resistor and a battery; a protection resistor connected between the input terminal and an output terminal; a voltage distribution resistor connected to the output terminal; a control unit connected to the output terminal, configured to detect the on/off state of an external switch unit connected between the input terminal and ground; and a dark current reduction unit (160/T 2 ) connected between the other end of the pull-up resistor and the switch unit (T 1 ), and enabling different current paths (I l I a ) to be formed in a normal mode and in a low power mode, wherein the dark current reduction unit (160/T 2 ) enables a current path (I l ) in the low power mode to have a higher resistance than a current path (I a ) in the normal mode, characterized in that , the control unit is configured to control the operation of the switch unit (T 1 ) and the operation of the dark current reduction unit (160/T 2 ). a pull-up resistor having one end thereof connected to an input terminal; a switch unit (T 1 ) for establishing/blocking a connection between the other end of the pull-up resistor and a battery; a protection resistor connected between the input terminal and an output terminal; a voltage distribution resistor connected to the output terminal; a control unit connected to the output terminal, configured to detect the on/off state of an external switch unit connected between the input terminal and ground; and a dark current reduction unit (160/T 2 ) connected between the other end of the pull-up resistor and the switch unit (T 1 ), and enabling different current paths (I l I a ) to be formed in a normal mode and in a low power mode, wherein the dark current reduction unit (160/T 2 ) enables a current path (I l ) in the low power mode to have a higher resistance than a current path (I a ) in the normal mode, characterized in that , the control unit is configured to control the operation of the switch unit (T 1 ) and the operation of the dark current reduction unit (160/T 2 ).
One or more computer-readable memories storing instructions which, when executed by one or more processors disposed in alocal device (110 1 ), implement a method for real-time sharing of content between respective local and remote parties using local and remotedevices during aphonecall , comprising: during the phone call , exposing a user interface for initiating the real-time sharing; enabling selection of content for sharing, the shareable content being locally available to the local device (110 1 ) or available to the local device (110 1 ) from a remote source ; enabling pre-staging of content in which pre-staged content is separate from presently shared content so that the remote party (105 N ) is prevented from viewing the pre-staged content; enabling the local party (105 1 ) to movecontent from pre-staging to presently shared content so that the local party (105 1 ) can control pacing of presentation of instances of shared content items with the remote party (105 N ); and providing tools for highlighting portions of shared content for the remote party (105 N ), the highlighting including graphics or text annotations; characterized by providing controls to enable the local party (105 1 ) of the local device (110 1 ) controlling the remote party (105 N )'s access to shared content after the phone call is terminated, the controlling including enabling shared content to be accessed for a predetermined time interval after the termination of thephonecall . during the phone call , exposing a user interface for initiating the real-time sharing; enabling selection of content for sharing, the shareable content being locally available to the local device (110 1 ) or available to the local device (110 1 ) from a remote source ; enabling pre-staging of content in which pre-staged content is separate from presently shared content so that the remote party (105 N ) is prevented from viewing the pre-staged content; enabling the local party (105 1 ) to movecontent from pre-staging to presently shared content so that the local party (105 1 ) can control pacing of presentation of instances of shared content items with the remote party (105 N ); and providing tools for highlighting portions of shared content for the remote party (105 N ), the highlighting including graphics or text annotations; characterized by providing controls to enable the local party (105 1 ) of the local device (110 1 ) controlling the remote party (105 N )'s access to shared content after the phone call is terminated, the controlling including enabling shared content to be accessed for a predetermined time interval after the termination of thephonecall .