mhurhangee/patent-ind-claim-en huggingface dataset:
Orthodontic tooth position regulation arrangement with a tooth rail , which can be placed on a row of teeth and removed from it, and comprising on its inner side individual pockets , each for receiving a tooth (3, 3.1), with an elastic plastic material, wherein the tooth position regulation arrangement is configured in such a way that, when the tooth rail is placed on the row of teeth , force can be applied on specific points by at least one pressure point onto at least one of the teeth (3, 3.1) received in the tooth rail , wherein the tooth position regulation arrangement comprises at least one pressure point attachment (2, 2.1), which can be secured in non-positive fit to the at least one tooth (3, 3.1) which is received in the tooth rail at the point(s) determined beforehand as a pressure point for the tooth regulation, in such a way that the tooth rail can take effect with its inner side for the purpose of applying force at a specific point, held under preliminary tension against the pressure point attachment (2, 2.1), characterised in that the inner side of the tooth rail forms a negative structure of the row of teeth before the at least one pressure point attachment (2, 2.1, 2.2) is secured to the at least one tooth (3, 3.1) of the row of teeth .
One or more devices comprising: one or more processors; and a memory having computer-executable instructions stored thereupon which, when executed by the one or more processors, cause the one or more devices to: monitor a plurality of onboarding engagement sessions , wherein an individual onboarding engagement session comprises tasks to move at least part of a service from client-managed computing infrastructure to network computing infrastructure ; store, in a database and based at least in part on the monitoring, onboarding information associated with completion of the tasks for the plurality of onboarding engagement sessions ; determine an error common to a task from at least some of the plurality of onboarding engagement sessions , wherein the error prevents or delays completion of the task; identify, based at least in part on the onboarding information , one or more solutions that individually have the potential to resolve the error; and store, in the database and in association with the error, the one or more solutions. one or more processors; and a memory having computer-executable instructions stored thereupon which, when executed by the one or more processors, cause the one or more devices to: monitor a plurality of onboarding engagement sessions , wherein an individual onboarding engagement session comprises tasks to move at least part of a service from client-managed computing infrastructure to network computing infrastructure ; store, in a database and based at least in part on the monitoring, onboarding information associated with completion of the tasks for the plurality of onboarding engagement sessions ; determine an error common to a task from at least some of the plurality of onboarding engagement sessions , wherein the error prevents or delays completion of the task; identify, based at least in part on the onboarding information , one or more solutions that individually have the potential to resolve the error; and store, in the database and in association with the error, the one or more solutions. monitor a plurality of onboarding engagement sessions , wherein an individual onboarding engagement session comprises tasks to move at least part of a service from client-managed computing infrastructure to network computing infrastructure ; store, in a database and based at least in part on the monitoring, onboarding information associated with completion of the tasks for the plurality of onboarding engagement sessions ; determine an error common to a task from at least some of the plurality of onboarding engagement sessions , wherein the error prevents or delays completion of the task; identify, based at least in part on the onboarding information , one or more solutions that individually have the potential to resolve the error; and store, in the database and in association with the error, the one or more solutions.
A method for increasing the load bearing properties of a polyurethane foam composition, the foam composition comprising the reaction product of a polyol component and a polyisocyanate component, the method comprising the step of incorporating into the polyol component a polycarbonate polyol derived from the copolymerization of one or more epoxides and carbon dioxide, wherein the polycarbonate polyol is added in a quantity from 2 weight percent to 50 weight percent, preferably (i) from 5 weight percent to 25 weight percent, or (ii) from 2 weight percent to 10 weight percent, or (iii) from 10 weight percent to 20 weight percent, or (iv) from 20 weight percent to 30 weight percent, or (v) from 30 weight percent to 50 weight percent of all polyols present in the polyol component, wherein the polycarbonate polyol contains a primary repeating unit having a structure: where R 1 , R 2 , R 3 , and R 4 are, at each occurrence in the polymer chain, independently selected from the group consisting of -H, fluorine, an optionally substituted C 1-40 aliphatic group, and an optionally substituted aryl group, where any two or more of R 1 , R 2 , R 3 , and R 4 may optionally be taken together with intervening atoms to form one or more optionally substituted rings optionally containing one or more heteroatoms; further wherein, on average, the percentage of carbonate linkages, in the polycarbonate polyol, is 85% or greater, preferably: (i) 90% or greater, (ii) 95% or greater, or (iii) 98% or greater, or (iv) 99% or greater, or (v) 99,5% or greater. where R 1 , R 2 , R 3 , and R 4 are, at each occurrence in the polymer chain, independently selected from the group consisting of -H, fluorine, an optionally substituted C 1-40 aliphatic group, and an optionally substituted aryl group, where any two or more of R 1 , R 2 , R 3 , and R 4 may optionally be taken together with intervening atoms to form one or more optionally substituted rings optionally containing one or more heteroatoms; further wherein, on average, the percentage of carbonate linkages, in the polycarbonate polyol, is 85% or greater, preferably: (i) 90% or greater, (ii) 95% or greater, or (iii) 98% or greater, or (iv) 99% or greater, or (v) 99,5% or greater.
A hose connection apparatus (A) providing connection of hoses or other connection members to each other, comprising a nut , a nipple housing (4.1) located on a nipple , the nipple housing (4.1) connected by rotating into nut threads (1.3) located on the nut , in which the hose is positionable, and further comprising an extension-1 (2.1 ) and an extension-2 (2.2) both located on a tightening bushing , wherein the extension-1 and the extension-2 are connected respectively to a nut screw housing (1.1) and a nut housing (1.2), both located inside the nut , said connection being provided by means of circular rotation of the extension-1 inside the nut screw housing (1.1) and by means of fitting the extension-2 (2.2) into the nut housing (1.2), and an intermediate bushing located to be connected onto the nipple housing (4.1) between the nut and the nipple and provided to by means of this connection, such that the hose is tightenable into by help of the tightening bushing , the nipple housing (4.1) and the nut so as to complete mounting of the hose in the apparatus.
A thermostatic valve, comprising a valve body in which a chamber is provided, and a thermal actuator and a first spring mounted in the chamber , wherein one end of the chamber is open, one end of the thermal actuator abuts against the first spring , and the valve body is provided with at least three ports which comprise a first port , a second port and a third port , and wherein a valve seat assembly is further provided in the chamber , the valve seat assembly comprises a first valve seat , the first valve seat is provided with a first valve port extending through the first valve seat , and the thermostatic valve opens or closes the first valve port through cooperation between the thermal actuator and the first spring , an outer diameter of the first valve seat is less than an inner diameter of a portion of the chamber where the first valve seat is located, and an inner passage is formed between an outer wall of the first valve seat and an inner wall of the chamber ; a pressure relief ring and a second spring are further provided in the chamber , one end of the second spring abuts against the pressure relief ring , the second spring is in a compressed state, the pressure relief ring is provided with a second valve port , and an inner diameter of the second valve port is less than the outer diameter of the first valve seat and greater than an inner diameter of the first valve port ; and the thermostatic valve opens and closes the inner passage through the pressure relief ring , and when the inner passage is unblocked, the first port is in communication with the third port through the inner passage, a first flow passage is formed in the thermostatic valve, wherein the first flow passage comprises the first port , the inner passage and the third port ; characterized in that, the chamber comprises a first chamber , the first valve seat is located in the first chamber , and the inner passage is formed between the outer wall of the first valve seat and an inner wall of the first chamber ; the valve seat assembly further comprises a connecting column , one end of the connecting column is connected to the first valve seat , the first valve seat is formed with an outer extension relative to the connecting column , and when the inner passage is blocked, the pressure relief ring abuts against the outer extension.
A user equipment, comprising: a wireless interface for communication with a cellular communication network, the wireless interface being operative for a device-to-device transmission and/or a device-to-device reception in a position determining procedure in which a relative position of the user equipment and at least one further user equipment is determined, the user equipment being operative to communicate with a radio access network node of the cellular communication network for network assistance in the position determining procedure, wherein the user equipment is operative to request the radio access network node to transmit a message associated with the position determining procedure in dependence on a target precision of the position determining procedure, receive the message from the radio access network node , and perform the device-to-device transmission and/or device-to-device reception in the position determining procedure in accordance with the message received from the radio access network node . a wireless interface for communication with a cellular communication network, the wireless interface being operative for a device-to-device transmission and/or a device-to-device reception in a position determining procedure in which a relative position of the user equipment and at least one further user equipment is determined, the user equipment being operative to communicate with a radio access network node of the cellular communication network for network assistance in the position determining procedure, wherein the user equipment is operative to request the radio access network node to transmit a message associated with the position determining procedure in dependence on a target precision of the position determining procedure, receive the message from the radio access network node , and perform the device-to-device transmission and/or device-to-device reception in the position determining procedure in accordance with the message received from the radio access network node . request the radio access network node to transmit a message associated with the position determining procedure in dependence on a target precision of the position determining procedure, receive the message from the radio access network node , and perform the device-to-device transmission and/or device-to-device reception in the position determining procedure in accordance with the message received from the radio access network node .
A medical system , comprising at least a first implantable device and a second implantable device , wherein each implantable device comprises a communication unit configured to transmit an ultrasonic signal to the communication unit of another implantable device of the medical system , wherein every cardiac cycle the first implantable device is configured to either apply a pacing pulse to the atrium or to sense an cardiac event, wherein the first implantable device is configured to transmit a broadcast message to at least the second implantable device in the form of an ultrasonic signal using the communication unit of the first implantable device after passing of a pre-defined time period after said cardiac event or pacing pulse, wherein said broadcast message indicates whether a cardiac event or a pacing pulse has occurred in the atrium , and wherein the respective implantable device is configured to start a timer when it receives a broadcast message indicating an occurrence of the cardiac event or the spacing pulse, wherein the timer of each implantable device is configured to let a time duration pass before ending with a timeout, wherein the respective time duration is a unique time duration that differs from the time durations of the other implantable device of the system.
Medical device for generating electrical stimulation of a patient (P), comprising: - a pulse generator configured to generate current pulses (CP) for electrical stimulation of the patient (P), and - at least one electrode lead configured to be connected to the pulse generator and comprising a plurality of electrode contacts (E1...E8) for delivering said current pulses (CP) to tissue (S) of the patient (P), wherein the pulse generator is configured to generate said current pulses (CP) with a rate in the range from 1 Hz to 100kHz, and wherein the individual current pulse (CP) comprises a pulse width in the range from 10 μs to 10 ms, characterized in that the pulse generator is configured to successively deliver current pulses (CP) via different electrode contacts (E1, E3, E5), wherein for each current pulse (CP) at least two charge balancing current pulses (AP) are delivered simultaneously with a stimulating current pulse delivered via one of the different electrode contacts (E1, E3, E5), wherein the respective charge balancing current pulses (AP) are delivered simultaneously to one of the current pulses (CP). - a pulse generator configured to generate current pulses (CP) for electrical stimulation of the patient (P), and - at least one electrode lead configured to be connected to the pulse generator and comprising a plurality of electrode contacts (E1...E8) for delivering said current pulses (CP) to tissue (S) of the patient (P), the pulse generator is configured to generate said current pulses (CP) with a rate in the range from 1 Hz to 100kHz, and wherein the individual current pulse (CP) comprises a pulse width in the range from 10 μs to 10 ms, characterized in that the pulse generator is configured to successively deliver current pulses (CP) via different electrode contacts (E1, E3, E5), wherein for each current pulse (CP) at least two charge balancing current pulses (AP) are delivered simultaneously with a stimulating current pulse delivered via one of the different electrode contacts (E1, E3, E5), wherein the respective charge balancing current pulses (AP) are delivered simultaneously to one of the current pulses (CP).
Sock with anti-slip off structure, including a sole portion , on the frontside of which a toes portion is formed, and on the backside of the sole portion there is a heel portion , wherein the sole portion is extended into a calf portion at an angle above the heel portion , and a top rim of the sock is formed above the calf portion, wherein on the calf portion are formed two sections, wherein one of the sections is an elastic section (4.1) and the other section is a controlled compression section (4.2), wherein the elastic section (4.1) is located below the controlled compression section (4.2), wherein the elastic section (4.1) has a higher compression rate than the controlled compression section (4.2), in which the compression rate is highest in the lower part and lowest in the upper part, wherein the elastic section (4.1) is made as a single-layer single-sided knit, characterized in that the controlled compression section (4.2) is made as double-layer single-sided knit with inner and outer layer and in that the controlled compression section (4.2) is divided into three zones (A,B and C) which have different compression rates.
Method for cutting out workpiece parts from a plate-shaped workpiece by means of a cutting jet guided within a cutting gap , which comprises the following steps: - providing the plate-shaped workpiece on a workpiece support composed of three separate support surfaces , wherein these three support surfaces are arranged in a row and the cutting gap is delimited by two directly neighboring support surfaces of the three support surfaces , wherein the cutting gap extends perpendicularly to the row-shaped arrangement of the support surfaces and is completely open, wherein a single support surface , which is directly neighboring the cutting gap and is arranged between two other support surfaces , is a height-adjustable support surface , - cutting out at least one workpiece part from the plate-shaped workpiece , with a residual grid remaining, - removing the cut-out workpiece part from the residual grid by lowering the height-adjustable support surface from a high position, in which the support surface is part of the workpiece support, into at least one low position, - removing the cut-out workpiece part from the height-adjustable support surface in the low position, - raising the height-adjustable support surface from the low position to the high position. - providing the plate-shaped workpiece on a workpiece support composed of three separate support surfaces , wherein these three support surfaces are arranged in a row and the cutting gap is delimited by two directly neighboring support surfaces of the three support surfaces , wherein the cutting gap extends perpendicularly to the row-shaped arrangement of the support surfaces and is completely open, wherein a single support surface , which is directly neighboring the cutting gap and is arranged between two other support surfaces , is a height-adjustable support surface , - cutting out at least one workpiece part from the plate-shaped workpiece , with a residual grid remaining, - removing the cut-out workpiece part from the residual grid by lowering the height-adjustable support surface from a high position, in which the support surface is part of the workpiece support, into at least one low position, - removing the cut-out workpiece part from the height-adjustable support surface in the low position, - raising the height-adjustable support surface from the low position to the high position.
A screw pile for supporting a building structure, the screw pile comprising a shaft having a proximal end and a distal end, and a bit attached to the distal end of the pile, wherein the shaft comprises a plurality of helical plates arranged in a spaced apart relationship along the shaft , characterised in that each helical plate comprises a base plate having a plurality of cutting blades extending perpendicularly from the base plate , the cutting blades being arranged around the periphery of the base plate . a shaft having a proximal end and a distal end, and a bit attached to the distal end of the pile, wherein the shaft comprises a plurality of helical plates arranged in a spaced apart relationship along the shaft , characterised in that each helical plate comprises a base plate having a plurality of cutting blades extending perpendicularly from the base plate , the cutting blades being arranged around the periphery of the base plate .
A vehicle track core comprising: a body comprising a first end and a second end opposite the first end , the body having a body width (W B ) measured along a first axis (A) extending between the first and second ends , and a body length (L B , L B1 , L B2 ) measured along a second axis (B) orthogonal to the first axis; a first edge portion extending from the first end of the body ; and a second edge portion extending from the second end of the body , wherein each of the first and second edge portions defines at least one protrusion that extends from a major surface of the respective body , the at least one protrusion having a protrusion length (L P1 , L P2 , L P3 , L P4 , L P5 , L P6 ) that is less than the body length (L B , L B1 , L B2 ), and wherein the at least one protrusion has a non-rounded profile, wherein the first edge portion and the second edge portion each comprise a respective first side surface and a respective second side surface , wherein the at least one protrusion of at least one of the first end portion or the second end portion comprises at least two protrusions or one protrusion offset from the first and second side surfaces of the respective edge portion, and wherein the vehicle track core is configured to be at least partially embedded within a track body of a vehicle track . a body comprising a first end and a second end opposite the first end , the body having a body width (W B ) measured along a first axis (A) extending between the first and second ends , and a body length (L B , L B1 , L B2 ) measured along a second axis (B) orthogonal to the first axis; a first edge portion extending from the first end of the body ; and a second edge portion extending from the second end of the body , wherein each of the first and second edge portions defines at least one protrusion that extends from a major surface of the respective body , the at least one protrusion having a protrusion length (L P1 , L P2 , L P3 , L P4 , L P5 , L P6 ) that is less than the body length (L B , L B1 , L B2 ), and wherein the at least one protrusion has a non-rounded profile, wherein the first edge portion and the second edge portion each comprise a respective first side surface and a respective second side surface , wherein the at least one protrusion of at least one of the first end portion or the second end portion comprises at least two protrusions or one protrusion offset from the first and second side surfaces of the respective edge portion, and wherein the vehicle track core is configured to be at least partially embedded within a track body of a vehicle track .
A method comprising: receiving, at a source base station , a single end marker indication for a Protocol Data Unit, PDU, session associated with a user equipment being handed over to a target base station ; determining, by the source base station and in response to the received single end marker indication , at least one bearer mapped to the PDU session; generating for each determined bearer, at least one end marker indication (208A-B); and sending, over a forwarding path from the source base station to the target base station , the generated at least one end marker indication (208A-B). receiving, at a source base station , a single end marker indication for a Protocol Data Unit, PDU, session associated with a user equipment being handed over to a target base station ; determining, by the source base station and in response to the received single end marker indication , at least one bearer mapped to the PDU session; generating for each determined bearer, at least one end marker indication (208A-B); and sending, over a forwarding path from the source base station to the target base station , the generated at least one end marker indication (208A-B).