mhurhangee/patent-ind-claim-en huggingface dataset:
A method of forming a glass article, comprising: providing a glass substrate sheet; translating a pulsed laser beam on the glass substrate sheet to form a laser damage region extending from a surface of the glass substrate sheet to a mid-point of the glass substrate sheet; and contacting the glass substrate sheet with an etchant solution, wherein after the contacting of the glass substrate sheet with the etchant solution, the laser damage regions form channels having width and depth dimensions of less than 150 μm, whereby a channel is a depression in one surface of the glass substrate sheet that does not penetrate to the other surface of the glass substrate sheet and wherein the glass substrate sheet is strengthened before the pulsed laser beam is translated on the glass substrate sheet, and wherein the pulsed laser has a power of from 0.1W to 0.4W, or the glass substrate sheet is strengthened after the pulsed laser beam is translated on the glass substrate sheet, and wherein the pulsed laser has a power of from 0.4W to 0.6W. providing a glass substrate sheet; translating a pulsed laser beam on the glass substrate sheet to form a laser damage region extending from a surface of the glass substrate sheet to a mid-point of the glass substrate sheet; and contacting the glass substrate sheet with an etchant solution, wherein after the contacting of the glass substrate sheet with the etchant solution, the laser damage regions form channels having width and depth dimensions of less than 150 μm, whereby a channel is a depression in one surface of the glass substrate sheet that does not penetrate to the other surface of the glass substrate sheet and wherein the glass substrate sheet is strengthened before the pulsed laser beam is translated on the glass substrate sheet, and wherein the pulsed laser has a power of from 0.1W to 0.4W, or the glass substrate sheet is strengthened after the pulsed laser beam is translated on the glass substrate sheet, and wherein the pulsed laser has a power of from 0.4W to 0.6W.
A DNA-dependent ATPase (Dda) helicase which is a variant having at least 70% identity to the amino acid sequence of SEQ ID NO: 8, in which: (a) F98 is substituted with an amino acid which comprises a larger side chain (R group), wherein the larger side chain (R group) contains an increased number of carbon atoms, has an increased length, has an increased molecular volume and/or has an increased van der Waals volume; and (b) the part of the helicase comprising positions 1, 2, 3, 4, 5, 6, 51, 176, 177, 178, 179, 180, 181, 185, 189, 191, 193, 194, 195, 197, 198, 199, 200, 201, 202, 203, 204, 207, 208, 209, 210, 211, 212, 213, 216, 219, 220, 221, 223, 224, 226, 227, 228, 229, 247, 254, 255, 256, 257, 258, 259, 260, 261, 298, 300, 304, 308, 318, 319, 321, 337, 347, 350, 351, 405, 415, 422, 434, 437, 438 in SEQ ID NO: 8 which interact with a transmembrane pore comprises one or more modifications, wherein the helicase has the ability to control the movement of a polynucleotide. (a) F98 is substituted with an amino acid which comprises a larger side chain (R group), wherein the larger side chain (R group) contains an increased number of carbon atoms, has an increased length, has an increased molecular volume and/or has an increased van der Waals volume; and (b) the part of the helicase comprising positions 1, 2, 3, 4, 5, 6, 51, 176, 177, 178, 179, 180, 181, 185, 189, 191, 193, 194, 195, 197, 198, 199, 200, 201, 202, 203, 204, 207, 208, 209, 210, 211, 212, 213, 216, 219, 220, 221, 223, 224, 226, 227, 228, 229, 247, 254, 255, 256, 257, 258, 259, 260, 261, 298, 300, 304, 308, 318, 319, 321, 337, 347, 350, 351, 405, 415, 422, 434, 437, 438 in SEQ ID NO: 8 which interact with a transmembrane pore comprises one or more modifications,
A cosmetic composition comprising an ambora extract and a green tea extract, wherein the ambora extract represents between 0.00005% and 1% by weight of the composition.
A method performed by a network node for configuring beamformed paging transmissions to a user equipment, UE, wherein the method comprises: obtaining information identifying at least one capability of the UE; and taking into account the at least one capability of the UE when configuring at least one of: at least one paging occasion, and at least one paging transmission within each paging occasion, such that the at least one paging transmission is configured to be transmitted time multiplexed with synchronization signal, SS, block transmissions for a narrowband capable UE and frequency multiplexed with SS block transmissions for a wideband capable UE. obtaining information identifying at least one capability of the UE; and taking into account the at least one capability of the UE when configuring at least one of: at least one paging occasion, and at least one paging transmission within each paging occasion, such that the at least one paging transmission is configured to be transmitted time multiplexed with synchronization signal, SS, block transmissions for a narrowband capable UE and frequency multiplexed with SS block transmissions for a wideband capable UE. at least one paging occasion, and at least one paging transmission within each paging occasion, such that the at least one paging transmission is configured to be transmitted time multiplexed with synchronization signal, SS, block transmissions for a narrowband capable UE and frequency multiplexed with SS block transmissions for a wideband capable UE.
A terminal comprising: a communication unit configured to transmit and receive a signal; a control unit configured to generate a virtual short message service, SMS, message to trigger reception of a profile, the virtual SMS message including an internet protocol, IP, address of a profile management server; and a universal integrated circuit card, UICC , configured to: receive a profile download triggering signal including the virtual SMS message from the control unit , access the profile management server based on the IP address of the profile management server, receive the profile from the profile management server by the communication unit , and install the received profile. a communication unit configured to transmit and receive a signal; a control unit configured to generate a virtual short message service, SMS, message to trigger reception of a profile, the virtual SMS message including an internet protocol, IP, address of a profile management server; and a universal integrated circuit card, UICC , configured to: receive a profile download triggering signal including the virtual SMS message from the control unit , access the profile management server based on the IP address of the profile management server, receive the profile from the profile management server by the communication unit , and install the received profile. receive a profile download triggering signal including the virtual SMS message from the control unit , access the profile management server based on the IP address of the profile management server, receive the profile from the profile management server by the communication unit , and install the received profile.
A method of forming an opening in an insulating layer covering a semiconductor region (110; 110N, 110P) comprising germanium, successively comprising: a) the forming of a first masking layer on the insulating layer ; b) the forming on the first masking layer of a second masking layer comprising an opening ; c) the etching an opening in the first masking layer, in line with the opening of the second masking layer; d) the removal of the second masking layer by oxygen-based etching; and e) the forming of the opening of said insulating layer in line with the opening of the first masking layer, by an etching where less than 5% of the reactive molecules used are oxygen molecules, wherein: I) the insulating layer is located on and in contact with the upper surface of said semiconductor region (110 ; 110N, 110P); or II) the insulating layer is located on an in contact with an additional semiconductor layer , said additional semiconductor layer being made of silicon or having an atomic percentage of silicon greater than 70%, and covering said semiconductor region (110 ; 110N, 110P). a) the forming of a first masking layer on the insulating layer ; b) the forming on the first masking layer of a second masking layer comprising an opening ; c) the etching an opening in the first masking layer, in line with the opening of the second masking layer; d) the removal of the second masking layer by oxygen-based etching; and e) the forming of the opening of said insulating layer in line with the opening of the first masking layer, by an etching where less than 5% of the reactive molecules used are oxygen molecules, I) the insulating layer is located on and in contact with the upper surface of said semiconductor region (110 ; 110N, 110P); or II) the insulating layer is located on an in contact with an additional semiconductor layer , said additional semiconductor layer being made of silicon or having an atomic percentage of silicon greater than 70%, and covering said semiconductor region (110 ; 110N, 110P).
A method for reducing streak artifact in a magnetic resonance imaging system , the method comprising: acquiring , by the magnetic resonance imaging system , k-space data for different coils from a radial scan of a patient; determining a streak energy from the k-space data for each of the coils ; weighting the k-space data differently for different ones of the coils based on the respective streak energies; reconstructing a representation of the patient from the weighted k-space data; and calculating a correction field for correcting intensity bias introduced due to the different weighting of the k-space data for different ones of the coils , from the streak energy; and correcting , after the reconstruction , intensity bias in the representation based on the correction field, generating an image from the corrected representation, wherein determining comprises separating the k-space data into high and low frequency bands by a frequency threshold, the streak energy being a ratio of energy in the high frequency band to energy in the low frequency band. acquiring , by the magnetic resonance imaging system , k-space data for different coils from a radial scan of a patient; determining a streak energy from the k-space data for each of the coils ; weighting the k-space data differently for different ones of the coils based on the respective streak energies; reconstructing a representation of the patient from the weighted k-space data; and calculating a correction field for correcting intensity bias introduced due to the different weighting of the k-space data for different ones of the coils , from the streak energy; and correcting , after the reconstruction , intensity bias in the representation based on the correction field, generating an image from the corrected representation,
Method to cast a sheet of a material containing alkaloids, the method comprising: - providing a container having an aperture; - providing a casting blade ; - providing a movable support running below the aperture of the container; - filling the container with slurry ; - casting the sheet of tobacco material containing alkaloids material by means of the casting blade onto the movable support ; characterised in that it also includes: - sensing variations in a height of the movable support , wherein sensing variations in the height of the movable support includes positioning a sensing surface in contact to the movable support; and - changing a height of the casting blade if such variations in the height of the movable support are present. - providing a container having an aperture; - providing a casting blade ; - providing a movable support running below the aperture of the container; - filling the container with slurry ; - casting the sheet of tobacco material containing alkaloids material by means of the casting blade onto the movable support ; - sensing variations in a height of the movable support , wherein sensing variations in the height of the movable support includes positioning a sensing surface in contact to the movable support; and - changing a height of the casting blade if such variations in the height of the movable support are present.
A cathode active material for a lithium secondary battery, the cathode active material comprising: a first region represented by following Chemical Formula 1, wherein concentrations of M1, M2 and M3 are constant, and wherein radius from the center of the first region is R1; and a second region formed around the first region, wherein thickness of the second region is D1, and wherein concentrations of M1, M2, M3 and M4 are changed from the composition shown in the Chemical Formula 1 into the following composition shown in Chemical Formula 2, thereby the second region shows composition of the Chemical Formula 2 at the outer shell, [Chemical Formula 1] Li a1 M1 x1 M2 y1 M3 z1 O 2+δ [Chemical Formula 2] Li a2 M1 x2 M2 y2 M3 z2 M4 w O 2+δ , wherein, in Chemical Formula 1 and Chemical Formula 2, M1, M2 and M3 is selected from a group including Ni, Co, Mn and combinations thereof, M4 is selected from a group including Fe, Na, Mg, Ca, Ti, V, Cr, Cu, Zn, Ge, Sr, Ag, Ba, Zr, Nb, Mo, Al, Ga, B and combinations thereof, 0<a1≤1.1, 0<a2≤1.1, 0≤x1≤1, 0≤x2≤1, 0≤y1≤1, 0≤y2≤1, 0≤z1≤1, 0≤z2≤1, 0<w≤0.1, 0.0≤δ≤0.02, 0<x1+y1+z1≤1, 0<x2+y2+z2≤1 and 0<R1≤0.5 μm, 0<D1≤0.5 μm, and characterized in that the concentration gradients of M1, M2 and M3 are constant in the second region. a first region represented by following Chemical Formula 1, wherein concentrations of M1, M2 and M3 are constant, and wherein radius from the center of the first region is R1; and a second region formed around the first region, wherein thickness of the second region is D1, and wherein concentrations of M1, M2, M3 and M4 are changed from the composition shown in the Chemical Formula 1 into the following composition shown in Chemical Formula 2, thereby the second region shows composition of the Chemical Formula 2 at the outer shell, [Chemical Formula 1] Li a1 M1 x1 M2 y1 M3 z1 O 2+δ [Chemical Formula 2] Li a2 M1 x2 M2 y2 M3 z2 M4 w O 2+δ , wherein, in Chemical Formula 1 and Chemical Formula 2, M1, M2 and M3 is selected from a group including Ni, Co, Mn and combinations thereof, M4 is selected from a group including Fe, Na, Mg, Ca, Ti, V, Cr, Cu, Zn, Ge, Sr, Ag, Ba, Zr, Nb, Mo, Al, Ga, B and combinations thereof, 0<a1≤1.1, 0<a2≤1.1, 0≤x1≤1, 0≤x2≤1, 0≤y1≤1, 0≤y2≤1, 0≤z1≤1, 0≤z2≤1, 0<w≤0.1, 0.0≤δ≤0.02, 0<x1+y1+z1≤1, 0<x2+y2+z2≤1 and 0<R1≤0.5 μm, 0<D1≤0.5 μm, and characterized in that the concentration gradients of M1, M2 and M3 are constant in the second region.
A magnetic connector module , comprising: a board having a concave section formed at a first side and a planar second side opposite the first side, the concave section having a base surface having formed thereon a plurality of first electrodes ; a plurality of second electrodes formed at the second side of the board on a rear surface facing away from the base surface; a plurality of holes formed through the concave section and having conductors formed therethrough to electrically connect the first electrodes and the second electrodes; a magnet disposed in the concave section; and a coating layer interposed between the magnet and the first electrodes to provide electrical insulation between the magnet and the first electrodes. a board having a concave section formed at a first side and a planar second side opposite the first side, the concave section having a base surface having formed thereon a plurality of first electrodes ; a plurality of second electrodes formed at the second side of the board on a rear surface facing away from the base surface; a plurality of holes formed through the concave section and having conductors formed therethrough to electrically connect the first electrodes and the second electrodes; a magnet disposed in the concave section; and a coating layer interposed between the magnet and the first electrodes to provide electrical insulation between the magnet and the first electrodes.
An adjustment device for a chair, said adjustment device comprising; a rocking mechanism composed of a first plate , which is fixed to a central gas-operated post for the height adjustment of a seat; a second plate to which said first plate is articulated, about a first axis that is transverse thereto and so that it can rock, said second plate being fixed to a seat or being integral with a seat; means which interact with said second plate and which are adapted to contrast the rocking of a backrest; a first cable which is slideably associated with said first plate ; a lever which is adapted to be activated by said first cable and which is articulated internally to said first plate at a different second axis and is adapted to activate the height adjustment of said seat; a second cable being further slideably associated with said first plate ; and a mechanism which is adapted to be activated by said second cable and which allows or prevents the rocking of said second plate .
A curable composition comprising: a near infrared-absorbing pigment (A) comprising a hydrophobic group; and a curable polymer (B) comprising at least one of a fluorine atom and a silicon atom, and comprising one or more curable functional groups selected from a (meth)acryloyloxy group, an epoxy group, and an oxetanyl group. a near infrared-absorbing pigment (A) comprising a hydrophobic group; and a curable polymer (B) comprising at least one of a fluorine atom and a silicon atom, and comprising one or more curable functional groups selected from a (meth)acryloyloxy group, an epoxy group, and an oxetanyl group.
Elevator comprising an elevator motor and an elevator drive comprising a backup power supply and an emergency drive module to enable release of trapped passengers in case of a power fault, based on the energy of the backup power supply, whereby the elevator drive comprises a drive housing and the backup power supply is located in a separate backup module which is releasably supported in a mounting position at the drive housing of the elevator drive , which backup module comprises a backup module housing and an electric interface which connects to a complementary interface of the elevator drive located at the drive housing , characterized in that the backup module housing is accommodated in a recess of an edge of the drive housing .
Method for testing a switching installation for power transmission installations, wherein the switching installation comprises a switch which selectively connects a first side of the switch to a second side of the switch or disconnects it therefrom, and comprises two earthing switches , wherein each of the two earthing switches is provided to selectively connect the first side or the second side to earth or to disconnect it from earth , wherein the method comprises: - generating a current through the switch , and - determining a magnitude of the current through the switch , wherein the two earthing switches are closed during the generation and determination steps, wherein, when the earthing switches are closed and the switch is closed, the generated current flows partly through the earthing switches and the switch and partly through earth, and wherein either the determining of the magnitude of the current through the switch comprises measuring a current discharging into the earth of the switching installation and determining a total current which is composed of the current through the switch and of the current discharging into the earth , or the current through the switch is measured directly in order to determine the magnitude of the current through the switch . wherein the switching installation comprises a switch which selectively connects a first side of the switch to a second side of the switch or disconnects it therefrom, and comprises two earthing switches , wherein each of the two earthing switches is provided to selectively connect the first side or the second side to earth or to disconnect it from earth , wherein the method comprises: - generating a current through the switch , and - determining a magnitude of the current through the switch , - generating a current through the switch , and - determining a magnitude of the current through the switch , wherein the two earthing switches are closed during the generation and determination steps, wherein, when the earthing switches are closed and the switch is closed, the generated current flows partly through the earthing switches and the switch and partly through earth, and wherein either the determining of the magnitude of the current through the switch comprises measuring a current discharging into the earth of the switching installation and determining a total current which is composed of the current through the switch and of the current discharging into the earth , or the current through the switch is measured directly in order to determine the magnitude of the current through the switch .
A side airbag device stored in a side support of a vehicle seat, a side frame and a pad being disposed in the side support , the side frame having a frame sidewall extending along a vehicle travel direction, the pad covering at least a front side of the side frame in the vehicle traveling direction, the side airbag device comprising: an airbag module, the airbag module having: an airbag for restraining an occupant when the airbag is expanded and deployed; and an inflator for supplying an inflation gas to the airbag, the inflator being disposed at an occupant seating side with respect to the frame sidewall in a vehicle width direction; and a webbing partially covering the airbag module when the airbag module is stored, wherein the webbing is disposed to extend from a rear side of the airbag module toward a vehicle front side along an inner side surface of the pad , pass through the pad along a first path so as to reach an outside of the pad , and further extend along an outer surface of the pad and reach proximately a front edge of the side support in the vehicle travel direction when viewed in a horizontal cross section of the airbag module from above. an airbag module, the airbag module having: an airbag for restraining an occupant when the airbag is expanded and deployed; and an inflator for supplying an inflation gas to the airbag, the inflator being disposed at an occupant seating side with respect to the frame sidewall in a vehicle width direction; and an airbag for restraining an occupant when the airbag is expanded and deployed; and an inflator for supplying an inflation gas to the airbag, the inflator being disposed at an occupant seating side with respect to the frame sidewall in a vehicle width direction; and a webbing partially covering the airbag module when the airbag module is stored, wherein the webbing is disposed to extend from a rear side of the airbag module toward a vehicle front side along an inner side surface of the pad , pass through the pad along a first path so as to reach an outside of the pad , and further extend along an outer surface of the pad and reach proximately a front edge of the side support in the vehicle travel direction when viewed in a horizontal cross section of the airbag module from above.