mhurhangee/patent-ind-claim-en huggingface dataset:
Laser apparatus , comprising: a cantilever platform having first and second opposite ends; a baseplate having first and second opposite surfaces; an optically pumped semiconductor, OPS, laser-resonator including an OPS-chip , the OPS laser-resonator assembled on the cantilever platform with the OPS-chip bonded to a heat-sink attached to the first end of the cantilever platform ; wherein the first end of the cantilever platform is supported on the baseplate , and a remaining portion of the cantilever platform including the second end thereof extends over the baseplate with a gap between the remaining portion of the cantilever platform and the baseplate ; and wherein a pump-radiation source is mounted on the first surface of the baseplate and arranged to deliver optical pump radiation to the OPS-chip for energizing the OPS laser-resonator . a cantilever platform having first and second opposite ends; a baseplate having first and second opposite surfaces; an optically pumped semiconductor, OPS, laser-resonator including an OPS-chip , the OPS laser-resonator assembled on the cantilever platform with the OPS-chip bonded to a heat-sink attached to the first end of the cantilever platform ; wherein the first end of the cantilever platform is supported on the baseplate , and a remaining portion of the cantilever platform including the second end thereof extends over the baseplate with a gap between the remaining portion of the cantilever platform and the baseplate ; and wherein a pump-radiation source is mounted on the first surface of the baseplate and arranged to deliver optical pump radiation to the OPS-chip for energizing the OPS laser-resonator .
A terminal device, comprising: a feed, a metal frame that is grounded, and at least two radiating patches ; wherein at least two grooves are disposed on an outer surface of the metal frame, two through-holes are disposed in each groove, a radiating patch of the at least two radiating patches is disposed in each groove, two antenna feeding points are disposed on each radiating patch, the feed is connected to each feeding point of each two antenna feeding points disposed on each radiating patch through the respective through-hole, the antenna feeding points in each groove are in a one-to-one correspondence with the through-holes, and each radiating patch is insulated from the groove by using a non-conducting material; and characterized by that the feed is a millimeter-wave feed, and the metal frame is a radiator of a non-millimeter-wave communication antenna. a feed, a metal frame that is grounded, and at least two radiating patches ; wherein at least two grooves are disposed on an outer surface of the metal frame, two through-holes are disposed in each groove, a radiating patch of the at least two radiating patches is disposed in each groove, two antenna feeding points are disposed on each radiating patch, the feed is connected to each feeding point of each two antenna feeding points disposed on each radiating patch through the respective through-hole, the antenna feeding points in each groove are in a one-to-one correspondence with the through-holes, and each radiating patch is insulated from the groove by using a non-conducting material; and characterized by that the feed is a millimeter-wave feed, and the metal frame is a radiator of a non-millimeter-wave communication antenna.
A method for manufacturing an electrode assembly of a secondary battery comprising: joining a positive electrode plate and a first separator to form a positive electrode composite plate body ; joining a negative electrode plate and a second separator to form a negative electrode composite plate body ; winding the positive electrode composite plate body and the negative electrode composite plate body together to form an electrode assembly , wherein the positive electrode plate and the negative electrode plate are disposed to isolate from each other by the first separator and the second separator , wherein before completing the joining of the positive electrode plate and the first separator , a cutting off process is performed for the positive electrode plate in the upstream of the joining position of the positive electrode plate and the first separator ; and/or before completing the joining of the negative electrode plate and the second separator , a cutting off process is performed for the negative electrode plate in the upstream of the joining position of the negative electrode plate and the second separator . joining a positive electrode plate and a first separator to form a positive electrode composite plate body ; joining a negative electrode plate and a second separator to form a negative electrode composite plate body ; winding the positive electrode composite plate body and the negative electrode composite plate body together to form an electrode assembly , wherein the positive electrode plate and the negative electrode plate are disposed to isolate from each other by the first separator and the second separator , wherein before completing the joining of the positive electrode plate and the first separator , a cutting off process is performed for the positive electrode plate in the upstream of the joining position of the positive electrode plate and the first separator ; and/or before completing the joining of the negative electrode plate and the second separator , a cutting off process is performed for the negative electrode plate in the upstream of the joining position of the negative electrode plate and the second separator .
Drilling apparatus comprising - a drilling device or a drilling resistance measuring device and - a drilling needle that is supported and guided along a drill axis (b) in the drilling device or the drilling resistance measuring device and exits from the housing of the drilling device or drilling resistance measuring device at the front side, characterized in that the drilling apparatus - comprises a deflector attachment which is arranged at the front side of the housing of the drilling device or drilling resistance measuring device , and comprises a deflector housing in which the drilling needle is guided, wherein the deflector housing for the drilling needle in the arrangement of use is curved about a predetermined angle (α) wherein a section of the drilling needle exiting from the deflector attachment can be guided along the drilling needle exit axis (a) that is offset in the arrangement of use by the predetermined angle (α) in relation to the drill axis (b) of the drilling device or drilling resistance measuring device . - a drilling device or a drilling resistance measuring device and - a drilling needle that is supported and guided along a drill axis (b) in the drilling device or the drilling resistance measuring device and exits from the housing of the drilling device or drilling resistance measuring device at the front side, characterized in that the drilling apparatus - comprises a deflector attachment which is arranged at the front side of the housing of the drilling device or drilling resistance measuring device , and comprises a deflector housing in which the drilling needle is guided, wherein the deflector housing for the drilling needle in the arrangement of use is curved about a predetermined angle (α) wherein a section of the drilling needle exiting from the deflector attachment can be guided along the drilling needle exit axis (a) that is offset in the arrangement of use by the predetermined angle (α) in relation to the drill axis (b) of the drilling device or drilling resistance measuring device . and comprises a deflector housing in which the drilling needle is guided, wherein the deflector housing for the drilling needle in the arrangement of use is curved about a predetermined angle (α) wherein a section of the drilling needle exiting from the deflector attachment can be guided along the drilling needle exit axis (a) that is offset in the arrangement of use by the predetermined angle (α) in relation to the drill axis (b) of the drilling device or drilling resistance measuring device .
A photographing method for an intelligent flight device, comprising: determining a light source angle α, wherein the light source angle is an angle between a current beam direction of a target light source and a vertical direction, the target light source is a light source capable of generating a projection of the intelligent flight device on the ground, and the vertical direction is a direction perpendicular to a horizontal plane at ground level; the photographing method being characterised in that : if the light source angle is not equal to zero: determining a bearing of a projection on the horizontal plane at ground level which is generated by travel of the light emitted from the target light source passing the intelligent flight device, the bearing of the projection d being defined by d = tan (α) x H, H being the current flight height of the intelligent flying device over the horizontal plane at ground level; and performing photographing based on a current photographing angle of the intelligent flight device and the bearing of the projection, wherein the photographing is executed by the intelligent flight device and comprises if the bearing of the projection is within the photographing range, rotating the current photographing angle to avoid the projection of the intelligent flight device on the ground to be incorporated into the photographed pictures or video. if the light source angle is not equal to zero: determining a bearing of a projection on the horizontal plane at ground level which is generated by travel of the light emitted from the target light source passing the intelligent flight device, the bearing of the projection d being defined by d = tan (α) x H, H being the current flight height of the intelligent flying device over the horizontal plane at ground level; and performing photographing based on a current photographing angle of the intelligent flight device and the bearing of the projection, wherein the photographing is executed by the intelligent flight device and comprises if the bearing of the projection is within the photographing range, rotating the current photographing angle to avoid the projection of the intelligent flight device on the ground to be incorporated into the photographed pictures or video.
A method comprising: receiving, by an optical device and via an optical fiber , a first optical signal encoded using an inverse signaling protocol, according to which the inverse signaling protocol comprises first intervals in which the optical device receives light that represents logical zeroes and second intervals in which the optical device receives no light, the absence of light representing logical ones; converting, by the optical device, the first optical signal into an electrical signal; performing, by the optical device, at least one function in response to the optical signal; and outputting, by the optical device, via the optical fiber, an outgoing optical signal with data different from data in the first optical signal and encoded using a normal signaling protocol, according to which the optical device outputs light to represent a logical one and does not output light to represent a logical zero. receiving, by an optical device and via an optical fiber , a first optical signal encoded using an inverse signaling protocol, according to which the inverse signaling protocol comprises first intervals in which the optical device receives light that represents logical zeroes and second intervals in which the optical device receives no light, the absence of light representing logical ones; converting, by the optical device, the first optical signal into an electrical signal; performing, by the optical device, at least one function in response to the optical signal; and outputting, by the optical device, via the optical fiber, an outgoing optical signal with data different from data in the first optical signal and encoded using a normal signaling protocol, according to which the optical device outputs light to represent a logical one and does not output light to represent a logical zero.
A method for managing a battery by an electronic device, the method comprising: obtaining a first plurality of battery parameters with respect to a first charging or discharging cycle of the battery; obtaining a second plurality of battery parameters with respect to a second charging or discharging cycle of the battery; characterized by determining a relative entropy by comparing the first plurality of battery parameters measured during the first charging or discharging cycle and the second plurality of battery parameters measured during the second charging or discharging cycle; and predicting a number of cycles after which a battery capacity is predicted to drop based on the determined relative entropy. obtaining a first plurality of battery parameters with respect to a first charging or discharging cycle of the battery; obtaining a second plurality of battery parameters with respect to a second charging or discharging cycle of the battery; characterized by determining a relative entropy by comparing the first plurality of battery parameters measured during the first charging or discharging cycle and the second plurality of battery parameters measured during the second charging or discharging cycle; and predicting a number of cycles after which a battery capacity is predicted to drop based on the determined relative entropy.
A method of making a magnetic drive component for an elevator system, the method comprising: inserting a plurality of metal teeth into a metal tube , the teeth respectively having a first portion received directly against an inside surface of the tube , the teeth respectively having a second portion and a third portion spaced apart and projecting inwardly toward a center of the tube ; and securing the plurality of teeth to the tube ; characterized in that : each of the teeth have a generally helical configuration and the plurality of teeth within the tube define a plurality of helical paths along the length of the tube ; and receiving a rotatable magnetic drive member within the interior of the tube , wherein: the rotatable magnetic drive member has an associated motor received within the interior of the tube ; a brake is associated with the rotatable magnetic drive member and configured to fit within the interior of the tube ; and the magnetic drive member includes a plurality of magnets arranged in a helical pattern. inserting a plurality of metal teeth into a metal tube , the teeth respectively having a first portion received directly against an inside surface of the tube , the teeth respectively having a second portion and a third portion spaced apart and projecting inwardly toward a center of the tube ; and securing the plurality of teeth to the tube ; each of the teeth have a generally helical configuration and the plurality of teeth within the tube define a plurality of helical paths along the length of the tube ; and receiving a rotatable magnetic drive member within the interior of the tube , wherein: the rotatable magnetic drive member has an associated motor received within the interior of the tube ; a brake is associated with the rotatable magnetic drive member and configured to fit within the interior of the tube ; and the magnetic drive member includes a plurality of magnets arranged in a helical pattern. the rotatable magnetic drive member has an associated motor received within the interior of the tube ; a brake is associated with the rotatable magnetic drive member and configured to fit within the interior of the tube ; and the magnetic drive member includes a plurality of magnets arranged in a helical pattern.
An in-vitro use of Bovine Meat and Milk Factor Group 1 (BMMF1) Rep protein as a biomarker for breast cancer, wherein the Rep protein is a MSBI1 genome-encoded Rep protein (MSBI1 Rep) encoded by MSBI1.176 comprising the amino acid sequence as depicted in SEQ ID NO: 1, a MSBI2 genome-encoded Rep protein (MSBI2 Rep) encoded by MSBI2.176 comprising the amino acid sequence as depicted in SEQ ID NO: 8, a CMI1 genome-encoded Rep protein (CMI1 Rep) encoded by CMI1.252 comprising the amino acid sequence as depicted in SEQ ID NO: 10, a CMI2 genome-encoded Rep protein (CMI2 Rep) encoded by CMI2.214 comprising the amino acid sequence as depicted in SEQ ID NO: 11 or a CMI3 genome-encoded Rep protein (CMI3 Rep) encoded by CMI3.168 comprising the amino acid sequence as depicted in SEQ ID NO: 12, or a variant of the protein with SEQ ID NO: 1 or SEQ ID NO: 8 having a homology of at least 90%, wherein the variant has one or more amino acid deletions, substitutions or additions and is capable of binding an anti-Rep antibody specific for a Rep protein having the amino acid sequence of SEQ ID NO: 1 or SEQ ID NO: 8.
Extraction assembly of a core from a log suitable for cooperating with a converting line , characterized in that it comprises rectilinear transport means of the log wound about a disintegrable core and a gripping device for the portion of the core projecting from the log , wherein the rectilinear transport means have a transverse transport direction with respect to the log advancement direction of the log along the converting line , and alternate transport direction back and forward and comprise a first portion suitable for being received within the converting line and a second portion suitable for being placed outside the converting line , aligned with respect to the first portion along the transverse transport direction.
Bundle spacer for holding and spacing apart cables of an overhead line , specifically a plurality of conductor cables and one carrying cable , comprising a supporting frame which arranges the cables in a home position in a mounted state and which has in each case one fastening receptacle for each of the cables , specifically a plurality of conductor cable receptacles and one carrying cable receptacle , wherein the cables run perpendicularly in relation to a transverse plane (Q) in the home position, characterized in that the supporting frame has a joint by means of which at least one of the conductor cables is held such that it can move in a rotational manner about a rotation axis (D), which runs perpendicularly in relation to the transverse plane (Q), relative to the carrying cable , and in that the joint is designed as a rotary bearing in which the carrying cable can be fastened, and in that, by means of the joint , the supporting frame is held such that it can move in a rotational manner relative to the carrying cable and can be rotated about the carrying cable in the transverse plane (Q).
Improved textile manufactured article realized by embroidery machines, comprising: - a base structure composed of thread-like and/or ribbon-like elements made at least of a first material, - at least one thread-like and/or ribbon-like element made of at least a second material, different from said first material in terms of mechanical resistance and or light reflection/refraction; said ornamental thread-like and/or ribbon-like element being connected to said base structure through a plurality of knottings disposed at pre-defined intervals along said thread-like and/or ribbon-like elements made of at least one first material, characterized in that said first material is a nylon having a yarn number between 40,000 Nm and 80,000 Nm. - a base structure composed of thread-like and/or ribbon-like elements made at least of a first material, - at least one thread-like and/or ribbon-like element made of at least a second material, different from said first material in terms of mechanical resistance and or light reflection/refraction; said ornamental thread-like and/or ribbon-like element being connected to said base structure through a plurality of knottings disposed at pre-defined intervals along said thread-like and/or ribbon-like elements made of at least one first material,
A method for producing a fluorine-containing haloolefin compound via a step of fluorinating a halogenated C 3 -hydrocarbon in the presence of a catalyst and HF, comprising removing a stabilizer contained in the halogenated C 3 -hydrocarbon before the fluorination step.
Ethylene propylene diene monomer (EPDM) sealing material comprising: a) - between 15 and 45 wt% of EPDM1, wherein the ethylene content of EPDM1 is between 45 and 65 wt% and ENB content of EPDM1 is between 5 and 10 wt%, or - between 5 and 35 wt% of EPDM2 wherein the ethylene content of EPDM2 is between 55 and 85 wt% and ENB content of EPDM2 is between 5 and 10 wt%, in combination with between 3 and 25 wt% of EPDM3 wherein the ethylene content of EPDM3 is between 55 and 75 wt% and ENB content of EPDM3 is between 5 and 10 wt%, b) between 5 and 35 wt% of process oil, c) between 0.1 and 10 wt% of oxide, d) between 0.1 and 5 wt% of activator, e) between 0.1 and 5 wt% of vulcanizing agent, f) between 0.1 and 10 wt% of accelerator, characterized in that the material further comprises: g) between 5 and 45wt% of carbon black1 (iodine adsorption number 43g/kg, STSA 39 m 2 /g, oil absorption number 121 cm 3 /100g), h) between 0.25 and 15 wt% of carbon black2 (iodine adsorption number >600g/kg, STSA >400 m 2 /g, oil absorption number >350 cm 3 /100g), wherein carbon black1/carbon black2 ratio is between 20 and 3 times. a) - between 15 and 45 wt% of EPDM1, wherein the ethylene content of EPDM1 is between 45 and 65 wt% and ENB content of EPDM1 is between 5 and 10 wt%, or - between 5 and 35 wt% of EPDM2 wherein the ethylene content of EPDM2 is between 55 and 85 wt% and ENB content of EPDM2 is between 5 and 10 wt%, in combination with between 3 and 25 wt% of EPDM3 wherein the ethylene content of EPDM3 is between 55 and 75 wt% and ENB content of EPDM3 is between 5 and 10 wt%, - between 5 and 35 wt% of EPDM2 wherein the ethylene content of EPDM2 is between 55 and 85 wt% and ENB content of EPDM2 is between 5 and 10 wt%, in combination with between 3 and 25 wt% of EPDM3 wherein the ethylene content of EPDM3 is between 55 and 75 wt% and ENB content of EPDM3 is between 5 and 10 wt%, b) between 5 and 35 wt% of process oil, c) between 0.1 and 10 wt% of oxide, d) between 0.1 and 5 wt% of activator, e) between 0.1 and 5 wt% of vulcanizing agent, f) between 0.1 and 10 wt% of accelerator, g) between 5 and 45wt% of carbon black1 (iodine adsorption number 43g/kg, STSA 39 m 2 /g, oil absorption number 121 cm 3 /100g), h) between 0.25 and 15 wt% of carbon black2 (iodine adsorption number >600g/kg, STSA >400 m 2 /g, oil absorption number >350 cm 3 /100g),
Reverse current inhibitor , comprising at least one diode that is bridged by a first variable resistance element , further comprising means to switch the first variable resistance element from a first higher resistance to a second lower resistance in response to a forward current I F that has passed the diode in its forward direction, and means to switch the first variable resistance element to a higher resistance in response to a sensing circuit detecting a reverse current I R corresponding to the reverse direction of the diode , characterized in that the sensing circuit comprises a current-voltage converter (61-64) that includes a sensing resistor and amplifies a voltage drop U sense over the sensing resistor for one sign of said voltage drop only, so that the sensing circuit amplifies the voltage drop U sense if the sign is positive, and outputs zero voltage and zero current if the sign of U sense is negative.