mhurhangee/patent-ind-claim-en huggingface dataset:
System for generating ultrasonic waves, especially for cosmetic and therapeutic treatment, having an electrically actuated ultrasound head which is designed to generate ultrasonic waves at at least two different frequencies f 1 , f 2 , and a control unit which is designed, permanently or at least during specified time periods, to switch over at least between the two specified frequency values f 1 , f 2 , wherein the system has a signal generator which is designed to generate the at least two frequencies f 1 , f 2 for conversion into ultrasonic waves, wherein the ultrasound head or an electrical connection of the ultrasound head has a memory element, characterised in that the control unit is designed, after switching over to the frequency f 1 , to generate ultrasonic waves at that frequency for a specified time period T 1 and, after switching over to the frequency f 2 , to generate ultrasonic waves at that frequency for a specified time period T 2 different from T 1 , wherein the time period assigned to the higher frequency is greater than the time period assigned to the lower frequency, the time periods T 1 and T 2 being in the range of from 0.5 ms to 50 ms; frequencies f 1 , f 2 optimised for the ultrasound head are stored in the memory element; and the system has a read-out unit for read-out of the frequencies f 1 , f 2 and transmission to the signal generator.
A method of providing a broadcast service by a relay user equipment, UE, in a wireless communication system, the method executed by the relay UE and comprising: receiving (S1302), from a remote UE, a temporary mobile group identity, TMGI, monitoring request including a service description related to a multimedia broadcast multicast service, MBMS, wherein the service description includes a TMGI and an MBMS service area identity, SAI; determining that the MBMS SAI corresponds to an SAI received in system information; transmitting (S1303), to the remote UE, a TMGI monitoring response including a proximity service, ProSe, layer-2 group identifier, ID, and a TMGI monitoring refresh timer; detecting (S1304) the TMGI based on the received service description related to the MBMS; and broadcasting (S1305) the ProSe layer-2 group ID corresponding to the detected TMGI and the detected TMGI; and broadcasting (S1306) content on a link related to the ProSe layer-2 group ID, wherein the MBMS SAI is provided to the remote UE from a group communication application, before the MBMS SAI is received by the relay UE. receiving (S1302), from a remote UE, a temporary mobile group identity, TMGI, monitoring request including a service description related to a multimedia broadcast multicast service, MBMS, wherein the service description includes a TMGI and an MBMS service area identity, SAI; determining that the MBMS SAI corresponds to an SAI received in system information; transmitting (S1303), to the remote UE, a TMGI monitoring response including a proximity service, ProSe, layer-2 group identifier, ID, and a TMGI monitoring refresh timer; detecting (S1304) the TMGI based on the received service description related to the MBMS; and broadcasting (S1305) the ProSe layer-2 group ID corresponding to the detected TMGI and the detected TMGI; and broadcasting (S1306) content on a link related to the ProSe layer-2 group ID,
A communication device, comprising: a parameterized scheduling module configured to receive a plurality of packets and comprising a packet inspection module , wherein the packet inspection module comprise: a traffic monitoring module configured to filter the plurality of packets according to a packet feature to output a plurality of first filtered packets and a plurality of second filtered packets, wherein the packet feature is associated with packet size; a connection detection module configured to receive the plurality of first filtered packets; a stream and session detection module configured to detect information about streams, sessions, and application associated with the filtered packets; and a status module configured to store the information, wherein the traffic monitoring module filters the plurality of first filtered packets according to the information and transmits the plurality of second filtered packets to a server , wherein the traffic monitoring module , the connection detection module , and the stream and session detection module operate at a plurality of protocol levels used in communicating the data packets, wherein the traffic monitoring module is further configured to analyze the data packets at a first one of the protocol levels to filter which of the data packets will be analyzed by the connection detection module and the stream and session detection module . a traffic monitoring module configured to filter the plurality of packets according to a packet feature to output a plurality of first filtered packets and a plurality of second filtered packets, wherein the packet feature is associated with packet size; a connection detection module configured to receive the plurality of first filtered packets; a stream and session detection module configured to detect information about streams, sessions, and application associated with the filtered packets; and a status module configured to store the information, wherein the traffic monitoring module filters the plurality of first filtered packets according to the information and transmits the plurality of second filtered packets to a server , wherein the traffic monitoring module , the connection detection module , and the stream and session detection module operate at a plurality of protocol levels used in communicating the data packets, wherein the traffic monitoring module is further configured to analyze the data packets at a first one of the protocol levels to filter which of the data packets will be analyzed by the connection detection module and the stream and session detection module .
An interconnect for a solid oxide fuel cell, comprising: a conductive substrate; and a ceramic protective layer provided on one or both sides of the conductive substrate, wherein the ceramic protective layer comprises a nickel-Cobalt-based spinel structure oxide of formula NiCo 2 O 4 characterized in that : the ceramic protective layer further comprises one or more cobalt-based oxide selected from the group consisting of Co 3 O 4 , CoCr 2 O 4 and CoFe 2 O 4 , and the ceramic protective layer contains Ni and Co, and a ratio of an atomic percentage (at%) of the Co to an atomic percentage (at%) of the Ni is 3 to 5. a conductive substrate; and a ceramic protective layer provided on one or both sides of the conductive substrate, wherein the ceramic protective layer comprises a nickel-Cobalt-based spinel structure oxide of formula NiCo 2 O 4 characterized in that : the ceramic protective layer further comprises one or more cobalt-based oxide selected from the group consisting of Co 3 O 4 , CoCr 2 O 4 and CoFe 2 O 4 , and the ceramic protective layer contains Ni and Co, and a ratio of an atomic percentage (at%) of the Co to an atomic percentage (at%) of the Ni is 3 to 5.
A converting machine used to convert sheet material into packaging templates for assembly into boxes or other packaging, the converting machine comprising: a converting assembly configured to perform one or more transverse conversion functions and one or more longitudinal conversion functions on the sheet material , said converting assembly comprising: one or more longheads having one or more converting instruments that perform the one or more longitudinal conversion functions on the sheet material , wherein at least one of said one or more longheads is adapted to be selectively repositioned along a width of said converting assembly in order to make the one or more longitudinal conversion functions at different positions along the width of the sheet material ; a crosshead having one or more converting instruments that perform the one or more transverse conversion functions on the sheet material, wherein said crosshead is selectively movable relative to the sheet material and along at least a portion of the width of said converting assembly in order to perform the one or more transverse conversion functions on the sheet material ; and one or more guide channels through which the sheet material may be fed, the one or more guide channels comprising a fixed guide channel and a movable guide channel . one or more longheads having one or more converting instruments that perform the one or more longitudinal conversion functions on the sheet material , wherein at least one of said one or more longheads is adapted to be selectively repositioned along a width of said converting assembly in order to make the one or more longitudinal conversion functions at different positions along the width of the sheet material ; a crosshead having one or more converting instruments that perform the one or more transverse conversion functions on the sheet material, wherein said crosshead is selectively movable relative to the sheet material and along at least a portion of the width of said converting assembly in order to perform the one or more transverse conversion functions on the sheet material ; and one or more guide channels through which the sheet material may be fed, the one or more guide channels comprising a fixed guide channel and a movable guide channel .
Heterostructure , in particular a piezoelectric structure, comprising a cover layer , in particular a layer of piezoelectric material, the cover layer having a first coefficient of thermal expansion, assembled to a support substrate , the support substrate having a second coefficient of thermal expansion substantially different from the first coefficient of thermal expansion, wherein at least one of the coefficients of thermal expansion shows strong anisotropy, at an interface, wherein the cover layer comprises at least a recess extending from the interface into the cover layer , characterised in that the support substrate comprises a functional layer adjacent to the interface, wherein the functional layer is a highly resistive layer providing the support substrate with electrical resistivity higher than 1kOhm/cm, preferentially higher than 5 kOhm/cm.
A method for growing a III-V semiconductor structure on an area of a Si n Ge 1-n substrate , wherein n is from 0 to 1, thereby forming at least a top layer of a source or a drain in a transistor located on said area, comprising the steps of: a. setting the temperature of the Si n Ge 1-n substrate between 550°C and 750°C if n < 0.5 and between 760 and 950 °C if n ≥ 0.5, b. at the same temperature, exposing the area to a group V precursor in a carrier gas for from 5 to 30 min, thereby forming a doped region at said area, c. setting the temperature of the Si n Ge 1-n substrate between 325°C and 375°C, d. at the same temperature, exposing the doped region to a group III precursor in a carrier gas and to a group V precursor in a carrier gas until a nucleation layer of III-V material of from 5 to 15 nm is formed on the doped region , e. setting the temperature of the Si n Ge 1-n substrate between 450°C and 550°C, f. at the same temperature, exposing the nucleation layer to a group III precursor in a carrier gas and to a group V precursor in a carrier gas, thereby forming the III-V semiconductor structure , wherein the III-V semiconductor structure is InAs, characterized in that , in step a, the temperature is set between 850 and 950°C if n=1, further characterized in that , in step b, the doped region has a doping range of from 10 18 to 5 x 10 19 cm -3 . a. setting the temperature of the Si n Ge 1-n substrate between 550°C and 750°C if n < 0.5 and between 760 and 950 °C if n ≥ 0.5, b. at the same temperature, exposing the area to a group V precursor in a carrier gas for from 5 to 30 min, thereby forming a doped region at said area, c. setting the temperature of the Si n Ge 1-n substrate between 325°C and 375°C, d. at the same temperature, exposing the doped region to a group III precursor in a carrier gas and to a group V precursor in a carrier gas until a nucleation layer of III-V material of from 5 to 15 nm is formed on the doped region , e. setting the temperature of the Si n Ge 1-n substrate between 450°C and 550°C, f. at the same temperature, exposing the nucleation layer to a group III precursor in a carrier gas and to a group V precursor in a carrier gas, thereby forming the III-V semiconductor structure , wherein the III-V semiconductor structure is InAs, characterized in that , in step a, the temperature is set between 850 and 950°C if n=1, further characterized in that , in step b, the doped region has a doping range of from 10 18 to 5 x 10 19 cm -3 .
A zero backlash locking assembly and an elongated mast , wherein the zero backlash locking assembly is rotatably coupled to the elongated mast, and wherein the locking assembly comprises: a mast stop member , the mast stop member including at least one receptacle arranged along a first axis, the mast stop member having a first surface that prevents the elongated mast from rotating in a first direction; a pawl member having a first end, a second end remote from the first end, and a receptacle disposed between the first end and the second end, the first end being configured to releasably engage a surface of the elongated mast, the receptacle being aligned with the at least one receptacle of the mast stop member along the first axis, and the second end being configured to selectively disengage the first end of the pawl member from the surface of the elongated mast so that the elongated mast is rotatable about a second axis different from the first axis, wherein rotation about the second axis is only permitted in a second direction opposite the first direction; a shaft member received by the at least one receptacle of the mast stop member and the receptacle of the pawl member along the first axis; and a torsion spring received along the shaft member and coupling to the pawl member, the torsion spring securing the first end of the pawl member against the surface of the elongated mast in a deployed state with zero backlash. a mast stop member , the mast stop member including at least one receptacle arranged along a first axis, the mast stop member having a first surface that prevents the elongated mast from rotating in a first direction; a pawl member having a first end, a second end remote from the first end, and a receptacle disposed between the first end and the second end, the first end being configured to releasably engage a surface of the elongated mast, the receptacle being aligned with the at least one receptacle of the mast stop member along the first axis, and the second end being configured to selectively disengage the first end of the pawl member from the surface of the elongated mast so that the elongated mast is rotatable about a second axis different from the first axis, wherein rotation about the second axis is only permitted in a second direction opposite the first direction; a shaft member received by the at least one receptacle of the mast stop member and the receptacle of the pawl member along the first axis; and a torsion spring received along the shaft member and coupling to the pawl member, the torsion spring securing the first end of the pawl member against the surface of the elongated mast in a deployed state with zero backlash.
A connection comprising first and second lined tubular members having a coincident bore and a protective ring , the first lined tubular member having a pin end and the second lined tubular member having a box end , each lined tubular member comprising a tubular body having a plane internal surface of constant diameter, an annular liner and a mortar filled annulus therebetween, the box end having a sealing surface and the pin end having a corresponding sealing surface for providing a seal, and said mortar filled annulus having an annular recess therein at at least one of the pin end and box end receiving a part of the protective ring , wherein the protective ring comprises a central body having a cylindrical internal surface configured to be coincident with an inner surface of the annular liners . first and second lined tubular members having a coincident bore and a protective ring , the first lined tubular member having a pin end and the second lined tubular member having a box end , each lined tubular member comprising a tubular body having a plane internal surface of constant diameter, an annular liner and a mortar filled annulus therebetween, the box end having a sealing surface and the pin end having a corresponding sealing surface for providing a seal, and said mortar filled annulus having an annular recess therein at at least one of the pin end and box end receiving a part of the protective ring , wherein the protective ring comprises a central body having a cylindrical internal surface configured to be coincident with an inner surface of the annular liners .
A seal assembly for sealing a fluid passageway from contaminants, the fluid passageway formed by a rotating shaft entering an opening in a housing , the fluid passageway connecting an interior of the housing and an exterior of the housing , the seal assembly comprising: a stationary member surrounding the shaft and affixed to the housing ; a rotatable member secured to an adjacent portion of the shaft , the rotatable member and the stationary member forming at least a portion of the fluid passage connecting the interior of the housing to the exterior of the housing ; a first sealing member disposed between the rotatable member and the stationary member and spaced apart from the shaft and a second sealing member located between the shaft and the stationary member , the first sealing member having an inner diameter encircling the rotating shaft and the second sealing member having an inner diameter encircling the rotating shaft , the first and second sealing members dividing the fluid passage into an interior section exposed to the interior of the housing , an open section exposed to the exterior, and a sealed section fluidly sealed between the interior section and the open section , wherein the length of the inner diameter of the first sealing member is a different length of the inner diameter of the second sealing member ; and a sensor disposed within the sealed section, the sensor detecting the contaminants within the sealed section , the seal assembly characterized in that the second sealing member contacts the shaft. a stationary member surrounding the shaft and affixed to the housing ; a rotatable member secured to an adjacent portion of the shaft , the rotatable member and the stationary member forming at least a portion of the fluid passage connecting the interior of the housing to the exterior of the housing ; a first sealing member disposed between the rotatable member and the stationary member and spaced apart from the shaft and a second sealing member located between the shaft and the stationary member , the first sealing member having an inner diameter encircling the rotating shaft and the second sealing member having an inner diameter encircling the rotating shaft , the first and second sealing members dividing the fluid passage into an interior section exposed to the interior of the housing , an open section exposed to the exterior, and a sealed section fluidly sealed between the interior section and the open section , wherein the length of the inner diameter of the first sealing member is a different length of the inner diameter of the second sealing member ; and a sensor disposed within the sealed section, the sensor detecting the contaminants within the sealed section , the seal assembly characterized in that the second sealing member contacts the shaft.
A compound of the formula (I) or a salt thereof: wherein, in the formula, R 1 is lower alkyl or halogeno-lower alkyl, R 2 is a halogen or halogeno-lower alkyl, L is a bond or -CH 2 -, A is CH or N, R 3 is H or lower alkyl, R 4 and R 5 are the same as or different from each other, and are H or lower alkyl, R 6 and R 7 are the same as or different from each other, and are H, lower alkyl, or a halogen. R 1 is lower alkyl or halogeno-lower alkyl, R 2 is a halogen or halogeno-lower alkyl, L is a bond or -CH 2 -, A is CH or N, R 3 is H or lower alkyl, R 4 and R 5 are the same as or different from each other, and are H or lower alkyl, R 6 and R 7 are the same as or different from each other, and are H, lower alkyl, or a halogen.
A method for deploying a trough structure, comprising: causing a first telescoping segment to move in a first direction away from a proximal end of a telescoping boom ; transitioning a flexible element from an untensioned state to a tensioned state as the first telescoping segment is moved in the first direction, where the flexible element is coupled to a distal end of the first telescoping segment by a first bulkhead and is coupled to a distal end of a second telescoping segment by a second bulkhead ; and coupling the first telescoping segment to the second telescoping segment of the boom when the first telescoping segment reaches an extended position; wherein the flexible element has a parabolic trough shape when in the tensioned state. causing a first telescoping segment to move in a first direction away from a proximal end of a telescoping boom ; transitioning a flexible element from an untensioned state to a tensioned state as the first telescoping segment is moved in the first direction, where the flexible element is coupled to a distal end of the first telescoping segment by a first bulkhead and is coupled to a distal end of a second telescoping segment by a second bulkhead ; and coupling the first telescoping segment to the second telescoping segment of the boom when the first telescoping segment reaches an extended position; wherein the flexible element has a parabolic trough shape when in the tensioned state.