mhurhangee/patent-ind-claim-en huggingface dataset:
Metallo supramolecular polymer conetworks (MSMC) of poly[r(alkyl) a -N-(pyridin-s-yl) (meth)-acrylamide moiety] m,n derivatives-complexed to a transition metal cation-linked by poly(dimethylsiloxane) p alkyl-(meth)-acrylate moiety derivatives, wherein a is 0 or 1 or 2, p is an integer selected from the group consisting of from 50 to 70 and of from 120 to 180, r is integer of from 0 to 4, and s is an integer of from 2 to 4, and m and n, independently, are integers of from 5 to 11.
An apex locator attachment (600d; 600g-600n) for electrically coupling a dental instrument to an apex locator comprising: an electrode (47;56;59;67) made of an electrically conductive material having a first portion and a second portion; and an insulating overmold which at least partly covers the electrode (47;56;59;67); wherein the first portion includes a clamping element with a spring back mechanism for clamping or hooking said apex locator attachment to the dental instrument for root canal measurement, and wherein said second portion is constructed as a jack-style connector or constructed to receive a jack-style connector for connection to an electrical connector of the apex locator, characterized in that the first portion of the electrode has plurality of openings for clamping different shaft diameters of dental instruments, or a plastic portion of a finger which exposes at least portion of the electrode includes a plurality of notches for receiving and restricting the movement of different sizes of dental instruments, or a coating material which is overmold onto the electrode includes a plurality of notches for receiving and clamping different sizes of dental instruments, or a cantilevered projection constructed to spring back and which extends to the electrode has a plurality of notches for holding dental instruments. an electrode (47;56;59;67) made of an electrically conductive material having a first portion and a second portion; and an insulating overmold which at least partly covers the electrode (47;56;59;67); wherein the first portion includes a clamping element with a spring back mechanism for clamping or hooking said apex locator attachment to the dental instrument for root canal measurement, and wherein said second portion is constructed as a jack-style connector or constructed to receive a jack-style connector for connection to an electrical connector of the apex locator, characterized in that the first portion of the electrode has plurality of openings for clamping different shaft diameters of dental instruments, or a plastic portion of a finger which exposes at least portion of the electrode includes a plurality of notches for receiving and restricting the movement of different sizes of dental instruments, or a coating material which is overmold onto the electrode includes a plurality of notches for receiving and clamping different sizes of dental instruments, or a cantilevered projection constructed to spring back and which extends to the electrode has a plurality of notches for holding dental instruments.
A method for manufacturing a handle comprising: manufacturing a surface portion for the handle , characterized in that the method comprises arranging the manufactured surface portion having a uniform thickness in a mould to contact a surface of the mould and to cover cavities which are provided in the surface in a predetermined pattern, pressing those parts of the surface portion that cover the cavities into the cavities with a mass that is introduced into the mould , and removing the handle from the mould once the mass has cured to form a rigid body which is at least partly covered by the surface portion from which protrusions arranged in the predetermined pattern protrude. manufacturing a surface portion for the handle , characterized in that the method comprises arranging the manufactured surface portion having a uniform thickness in a mould to contact a surface of the mould and to cover cavities which are provided in the surface in a predetermined pattern, pressing those parts of the surface portion that cover the cavities into the cavities with a mass that is introduced into the mould , and removing the handle from the mould once the mass has cured to form a rigid body which is at least partly covered by the surface portion from which protrusions arranged in the predetermined pattern protrude.
An aseptic coupling device , comprising: a main body defining a front face ; a membrane coupled to the front face, the membrane including a first portion coupled to the front face and a second portion folded over on the first portion; a low friction member positioned between the first and second portions of the membrane, wherein the low friction member is made of a material with a coefficient of friction that is lower than a coefficient of friction of the membrane, wherein the low friction member is coupled to the second portion, wherein the low friction member is coupled to the second portion such that the membrane can be removed from the front face without folding the low friction member. a main body defining a front face ; a membrane coupled to the front face, the membrane including a first portion coupled to the front face and a second portion folded over on the first portion; a low friction member positioned between the first and second portions of the membrane, wherein the low friction member is made of a material with a coefficient of friction that is lower than a coefficient of friction of the membrane, wherein the low friction member is coupled to the second portion, wherein the low friction member is coupled to the second portion such that the membrane can be removed from the front face without folding the low friction member.
A non-contact voltage measuring device for measuring a measurement target voltage (VL) applied to a conductor (wire, w), comprising: a probe ; an electric circuit (EC); and an electric field shield which covers at least part of the electric circuit (EC) so as to prevent an electric field from being incident to the electric circuit (EC), the probe including an electrode which is deformable, a relative distance between (i) at least part of the electrode and (ii) the electric field shield , which faces the electrode , being fixed so that the probe causes a capacitance value of a parasitic capacitance formed between the electrode and the electric field shield to be maintained at a given level, even in a case where the electrode is deformed, Characterized in that the electrode includes (i) a first electrode which is deformable and (ii) a second electrode whose relative position with respect to the electric field shield is maintained; the first electrode is electrically connected to the second electrode ; and the second electrode is provided at a position at which the second electrode is capable of shielding an electric field generated between the first electrode and the electric field shield . a probe ; an electric circuit (EC); and an electric field shield which covers at least part of the electric circuit (EC) so as to prevent an electric field from being incident to the electric circuit (EC), the probe including an electrode which is deformable, a relative distance between (i) at least part of the electrode and (ii) the electric field shield , which faces the electrode , being fixed so that the probe causes a capacitance value of a parasitic capacitance formed between the electrode and the electric field shield to be maintained at a given level, even in a case where the electrode is deformed, Characterized in that the electrode includes (i) a first electrode which is deformable and (ii) a second electrode whose relative position with respect to the electric field shield is maintained; the first electrode is electrically connected to the second electrode ; and the second electrode is provided at a position at which the second electrode is capable of shielding an electric field generated between the first electrode and the electric field shield .
Method for sum-frequency generation of light pulses, where light pulses are directed into a second-order nonlinear medium and satisfy the phase-matching conditions, the sum-frequency generation takes place by directing light pulses to an input side of the second-order nonlinear medium in pairs sequentially, one after another, so that: - a first light pulse of the pair passes through the second-order nonlinear medium , and at this time the phase-matching conditions are not satisfied in the second-order nonlinear medium and there is no nonlinear interaction, - the first light pulse of the pair passed though said second-order nonlinear medium is returned back by an optical scheme as returned back light pulse and directed to the same input side of the nonlinear medium , - the returned back light pulse of the pair overlaps with a second light pulse of the same pair, which propagates through the second-order nonlinear medium for the first time, satisfying the phase-matching condition between these pulses, - by satisfying the phase-matching condition between the returned back light pulse and the second pulse of the same pair passing for the first time through the second-order nonlinear medium , an efficient nonlinear interaction takes place, and the light pulses of each pair are combined into a sum-frequency light pulse, wherein a time interval between light pulses in the pair is predetermined and is equal to a time needed for the first light pulse of the pair to pass through the second-order medium , starting at an input side, to be returned back and directed to the same input side of the second-order nonlinear medium as returned back light pulse . - a first light pulse of the pair passes through the second-order nonlinear medium , and at this time the phase-matching conditions are not satisfied in the second-order nonlinear medium and there is no nonlinear interaction, - the first light pulse of the pair passed though said second-order nonlinear medium is returned back by an optical scheme as returned back light pulse and directed to the same input side of the nonlinear medium , - the returned back light pulse of the pair overlaps with a second light pulse of the same pair, which propagates through the second-order nonlinear medium for the first time, satisfying the phase-matching condition between these pulses, - by satisfying the phase-matching condition between the returned back light pulse and the second pulse of the same pair passing for the first time through the second-order nonlinear medium , an efficient nonlinear interaction takes place, and the light pulses of each pair are combined into a sum-frequency light pulse, wherein a time interval between light pulses in the pair is predetermined and is equal to a time needed for the first light pulse of the pair to pass through the second-order medium , starting at an input side, to be returned back and directed to the same input side of the second-order nonlinear medium as returned back light pulse .
A method for an in-vehicle communications system that enhances speech through reinforcement comprising: capturing one or more microphone signals containing echo from two or more loudspeaker signals; modeling the loudspeaker signals as a plurality of virtual audio sources comprising models of independent audio sources where the number of the plurality of virtual audio sources is less than the number of the two or more loudspeakers; estimating the echo paths from each of the plurality of virtual audio sources to each of the one or more microphones; and processing the captured microphone signals in response to the estimated echo paths by subtracting the echo contributions of each of the plurality of virtual audio sources to the one or more microphones. capturing one or more microphone signals containing echo from two or more loudspeaker signals; modeling the loudspeaker signals as a plurality of virtual audio sources comprising models of independent audio sources where the number of the plurality of virtual audio sources is less than the number of the two or more loudspeakers; estimating the echo paths from each of the plurality of virtual audio sources to each of the one or more microphones; and processing the captured microphone signals in response to the estimated echo paths by subtracting the echo contributions of each of the plurality of virtual audio sources to the one or more microphones.
An ultrasonic electronic cigarette, comprising an atomizer and a battery assembly detachably connected to each other, wherein the atomizer comprises an ultrasonic atomization sheet , and the battery assembly comprises a first battery electrode and a second battery electrode for supplying power to the atomizer ; when the atomizer is connected to the battery assembly , a first pole of the ultrasonic atomization sheet is electrically connected to the first battery electrode , and a second pole of the ultrasonic atomization sheet is electrically connected to the second battery electrode , is characterized in that the atomizer also comprises a conductive sheet capable of being electrically connected to the two poles of the ultrasonic atomization sheet respectively when the atomizer is disconnected from the battery assembly , and being electrically disconnected from either pole of the ultrasonic atomization sheet when the atomizer is connected to the battery assembly .
A method for controlling a secondary cell by a user equipment, UE, in a time division duplex, TDD, mobile communication system using carrier aggregation, the methode being performed by the UE and comprising: receiving a control message for activating the secondary cell from a evolved node B, ENB; operating a first timer and a second timer corresponding to 8 sub-frames in response to receiving of the control message for activating the secondary cell; activating a forward direction of the secondary cell in the first downlink sub-frame located first after the second timer expires; and activating a reverse direction of the secondary cell for channel state information, CSI, for the secondary cell and a sounding reference signal, SRS, for the secondary cell in a first sub-frame without a physical downlink control channel, PDCCH, after the second timer expires. receiving a control message for activating the secondary cell from a evolved node B, ENB; operating a first timer and a second timer corresponding to 8 sub-frames in response to receiving of the control message for activating the secondary cell; activating a forward direction of the secondary cell in the first downlink sub-frame located first after the second timer expires; and activating a reverse direction of the secondary cell for channel state information, CSI, for the secondary cell and a sounding reference signal, SRS, for the secondary cell in a first sub-frame without a physical downlink control channel, PDCCH, after the second timer expires.
A behind-the-ear hearing aid comprising a hearing aid housing , and a hearing aid assembly within the hearing aid housing , the hearing aid assembly comprising: a first side , a second side opposite the first side and a top side , wherein the first side or the second side is configured to be adjacent a surface of the head of the user when the hearing aid is worn in its operational position by the user, a transceiver for wireless data communication, and an antenna connected with the transceiver for emission and reception of an electromagnetic field, wherein the antenna comprises a first section , located at the top side of the hearing aid assembly and extending along the entire width of the top side , wherein the antenna has an excitation point provided at a first end of the first section, and wherein the longitudinal direction of the first section is configured to be parallel to an ear to ear axis when the housing is positioned in its operational position behind the ear of the user, and a second section extending from a second end of the first section opposite the first end along the first side of the hearing aid assembly, wherein the antenna is terminated with a free end. a first section , located at the top side of the hearing aid assembly and extending along the entire width of the top side , wherein the antenna has an excitation point provided at a first end of the first section, and wherein the longitudinal direction of the first section is configured to be parallel to an ear to ear axis when the housing is positioned in its operational position behind the ear of the user, and a second section extending from a second end of the first section opposite the first end along the first side of the hearing aid assembly,
A light emitting device comprising: a substrate ; and a phosphor layer composed in such a manner that a large number of phosphor particles are adhered onto a flat surface of the substrate , wherein substantially all of the phosphor particles are polyhedral phosphor particles that are monodispersed, each of the polyhedral phosphor particles is derived from a crystal structure of garnet and has facets , a median particle size D 50 of the polyhedral phosphor particles is 30 μm or more and a maximum thickness of the phosphor layer or less, and wherein substantially all of the phosphor particles adhered onto the flat surface of the substrate are the polyhedral phosphor particles that are monodispersed, each of the polyhedral phosphor particles is derived from the crystal structure of the garnet, and has the facets . a substrate ; and a phosphor layer composed in such a manner that a large number of phosphor particles are adhered onto a flat surface of the substrate , wherein substantially all of the phosphor particles are polyhedral phosphor particles that are monodispersed, each of the polyhedral phosphor particles is derived from a crystal structure of garnet and has facets , a median particle size D 50 of the polyhedral phosphor particles is 30 μm or more and a maximum thickness of the phosphor layer or less, and wherein substantially all of the phosphor particles adhered onto the flat surface of the substrate are the polyhedral phosphor particles that are monodispersed, each of the polyhedral phosphor particles is derived from the crystal structure of the garnet, and has the facets .
A refrigerating machine oil comprising: an ester of a fatty acid and a polyhydric alcohol as a base oil; and an acid scavenger, wherein the ester has a carbon/oxygen molar ratio of 2.5 or more and 5.8 or less and the fatty acid comprises a branched fatty acid having 4 to 9 carbon atoms in a proportion of 20 to 100 mol%, and the refrigerating machine oil being used with a trifluoroethylene refrigerant. an ester of a fatty acid and a polyhydric alcohol as a base oil; and an acid scavenger, wherein the ester has a carbon/oxygen molar ratio of 2.5 or more and 5.8 or less and the fatty acid comprises a branched fatty acid having 4 to 9 carbon atoms in a proportion of 20 to 100 mol%, and the refrigerating machine oil being used with a trifluoroethylene refrigerant.
A connector assembly comprising: a sheet-like base that is flexible, the sheet-like base including a base body and a tag portion drawn from the base body; at least one terminal member disposed on a front surface of the base body; at least one wire disposed to extend from the front surface of the base body to a front surface of the tag portion, the at least one wire having one end thereof connected to the at least one terminal member and another end thereof extending to the front surface of the tag portion; and a connector mounted on the front surface of the tag portion and connected to the another end of the at least one wire, wherein the tag portion is folded toward and fixed to the base body such that a rear surface of the tag portion faces a rear surface of the base body, whereby the connector is disposed on the rear surface side of the base body. a sheet-like base that is flexible, the sheet-like base including a base body and a tag portion drawn from the base body; at least one terminal member disposed on a front surface of the base body; at least one wire disposed to extend from the front surface of the base body to a front surface of the tag portion, the at least one wire having one end thereof connected to the at least one terminal member and another end thereof extending to the front surface of the tag portion; and a connector mounted on the front surface of the tag portion and connected to the another end of the at least one wire, wherein the tag portion is folded toward and fixed to the base body such that a rear surface of the tag portion faces a rear surface of the base body, whereby the connector is disposed on the rear surface side of the base body.
A method of processing an adipose tissue to collect adipose derived regenerative cells, comprising: providing a vessel comprising a centrally located cylinder comprising one or more nozzles configured to generate a high velocity fluid stream introducing the adipose tissue into the vessel; introducing a buffer solution into the vessel; washing the adipose tissue using the centrally located cylinder comprising one or more nozzles configured to generate a high velocity fluid stream; introducing an enzyme solution into the vessel; initiating jet mixing into the vessel comprising the adipose tissue, the enzyme solution, and the buffer solution using the centrally located cylinder comprising one or more nozzles configured to generate a high velocity fluid stream to digest the adipose tissue to form a digestion product; phase-separating the digestion product into a digested buoyant fat layer and a non-buoyant aqueous layer; and collecting the non-buoyant aqueous layer comprising the adipose derived regenerative cells through a filter a centrally located port on the bottom of the vessel, wherein the nozzles are located in the centrally located cylinder and are configured to be in an upward direction. providing a vessel comprising a centrally located cylinder comprising one or more nozzles configured to generate a high velocity fluid stream introducing the adipose tissue into the vessel; introducing a buffer solution into the vessel; washing the adipose tissue using the centrally located cylinder comprising one or more nozzles configured to generate a high velocity fluid stream; introducing an enzyme solution into the vessel; initiating jet mixing into the vessel comprising the adipose tissue, the enzyme solution, and the buffer solution using the centrally located cylinder comprising one or more nozzles configured to generate a high velocity fluid stream to digest the adipose tissue to form a digestion product; phase-separating the digestion product into a digested buoyant fat layer and a non-buoyant aqueous layer; and collecting the non-buoyant aqueous layer comprising the adipose derived regenerative cells through a filter a centrally located port on the bottom of the vessel,