mhurhangee/patent-ind-claim-en huggingface dataset:
Adhesive tape (K) for changing flat web material (RB) wound on rolls (R, B) on the fly, having a carrier layer (K3) which has a first surface (K31) and a second surface (K32) which lies opposite the first surface (K31); a first adhesive compound layer (K1) which is disposed indirectly or directly, at least on part of the face, on the first surface (K31) of the carrier layer (K3); a second adhesive compound layer (K2), which is disposed indirectly on at least a face region of the second surface (K32) of the carrier layer (K3); and at least one predetermined breaking face for splitting in a planar manner the adhesive tape (K); wherein the predetermined breaking face is configured as part of a splitting system (K4) between the carrier layer (K3) and the second adhesive compound layer (K2), characterized in that a reinforcement layer (VS1) which increases the tear-off force of that part (K4b) of the splitting system (K4) that after the splitting remains on the second adhesive compound layer (K2) longitudinally to the running direction of the adhesive tape (K) is applied between the second adhesive compound layer (K2) and the splitting system (K4). a carrier layer (K3) which has a first surface (K31) and a second surface (K32) which lies opposite the first surface (K31); a first adhesive compound layer (K1) which is disposed indirectly or directly, at least on part of the face, on the first surface (K31) of the carrier layer (K3); a second adhesive compound layer (K2), which is disposed indirectly on at least a face region of the second surface (K32) of the carrier layer (K3); and at least one predetermined breaking face for splitting in a planar manner the adhesive tape (K); wherein the predetermined breaking face is configured as part of a splitting system (K4) between the carrier layer (K3) and the second adhesive compound layer (K2), characterized in that a reinforcement layer (VS1) which increases the tear-off force of that part (K4b) of the splitting system (K4) that after the splitting remains on the second adhesive compound layer (K2) longitudinally to the running direction of the adhesive tape (K) is applied between the second adhesive compound layer (K2) and the splitting system (K4).
Fibrous web forming device having a bias belt former , a bias belt headbox and a de-watering device , wherein the bias belt former has at least one transport belt that transports the fibrous web in the running direction of the latter and has a sub-portion which runs obliquely to the horizontal and in which the bias belt headbox is disposed, a fibrous suspension being able to be deposited on the transport belt by means of said bias belt headbox ; wherein the de-watering device has a roller , a de-watering belt bearing on the roller , and a press belt pressing against the roller ; wherein the de-watering belt is configured as a felt and is guided continuously over a plurality of guide rollers ; and wherein the fibrous web in the region of the de-watering device is disposed between the de-watering belt and the press belt , characterized in that the transport belt in the region of the de-watering device is disposed in the sandwich between the de-watering belt and the press belt , wherein the fibrous web when running through the de-watering device remains on the transport belt . wherein the bias belt former has at least one transport belt that transports the fibrous web in the running direction of the latter and has a sub-portion which runs obliquely to the horizontal and in which the bias belt headbox is disposed, a fibrous suspension being able to be deposited on the transport belt by means of said bias belt headbox ; wherein the de-watering device has a roller , a de-watering belt bearing on the roller , and a press belt pressing against the roller ; wherein the de-watering belt is configured as a felt and is guided continuously over a plurality of guide rollers ; and wherein the fibrous web in the region of the de-watering device is disposed between the de-watering belt and the press belt , characterized in that the transport belt in the region of the de-watering device is disposed in the sandwich between the de-watering belt and the press belt , wherein the fibrous web when running through the de-watering device remains on the transport belt .
A method for subculturing pluripotent stem cells, comprising: a culture step of culturing pluripotent stem cells to obtain a cell aggregation; and a dividing step of dividing the cell aggregation by passing the cell aggregation through a mesh-like film, which has a plurality of through-holes each having an opening dimension of 30 μm to 80 μm, at a speed of 15 cm/sec to 150 cm/sec. a culture step of culturing pluripotent stem cells to obtain a cell aggregation; and a dividing step of dividing the cell aggregation by passing the cell aggregation through a mesh-like film, which has a plurality of through-holes each having an opening dimension of 30 μm to 80 μm, at a speed of 15 cm/sec to 150 cm/sec.
A dosing hopper for use in the production of panels or boards of wood-based material, comprising: a plurality of inlet openings (101, 102, 103 104) arranged on an upper side of the dosing hopper and respectively adapted to receive a stream of lignocellulose and/or cellulose containing particles, the plurality of inlet openings (101 to 104) comprising at least two inlet openings (101, 102, 103 104), each inlet opening (101, 102, 103 104) being spaced from an adjacent inlet opening (101, 102, 103 104) in a lengthwise direction of the dosing hopper ; an impinging surface arranged inside and at an upper portion of the dosing hopper , wherein the impinging surface is positioned beneath the plurality of inlet openings (101, 102, 103 104) and spans at least over the cumulative length of the plurality of inlet openings (101, 102, 103 104) so that the particles of each particle stream entering through the plurality of inlet openings (101, 102, 103 104) impinge on the impinging surface; and conveying means adapted for moving the particles of the plurality of particle streams having impinged on the impinging surface in a direction towards a discharging end of the dosing hopper to then drop into a space for storing the particles in the dosing hopper . a plurality of inlet openings (101, 102, 103 104) arranged on an upper side of the dosing hopper and respectively adapted to receive a stream of lignocellulose and/or cellulose containing particles, the plurality of inlet openings (101 to 104) comprising at least two inlet openings (101, 102, 103 104), each inlet opening (101, 102, 103 104) being spaced from an adjacent inlet opening (101, 102, 103 104) in a lengthwise direction of the dosing hopper ; an impinging surface arranged inside and at an upper portion of the dosing hopper , wherein the impinging surface is positioned beneath the plurality of inlet openings (101, 102, 103 104) and spans at least over the cumulative length of the plurality of inlet openings (101, 102, 103 104) so that the particles of each particle stream entering through the plurality of inlet openings (101, 102, 103 104) impinge on the impinging surface; and conveying means adapted for moving the particles of the plurality of particle streams having impinged on the impinging surface in a direction towards a discharging end of the dosing hopper to then drop into a space for storing the particles in the dosing hopper .
A method performed in a base station , the method comprising: the base station determining whether a wireless communication device , WCD, requires a downlink signal radio bearer, SRB, assignment; the base station determining a control channel element, CCE, aggregation level for a transmission to the WCD based on whether the WCD requires the SRB assignment; the base station determining whether a certain set of one or more conditions is satisfied, wherein determining whether the set of conditions is satisfied comprises the base station determining whether the determined CCE aggregation level is equal to a maximum CCE aggregation level; in response to determining that the set of conditions is satisfied, the base station selecting, from among a plurality of DCI formats corresponding to different respective DCI message sizes, a DCI format, wherein the DCI format is a robust DCI format used when the base station enters a maximum robustness state for control messages to be transmitted; the base station transmitting a control message through the SRB assignment to the WCD, wherein the control message is transmitted by using only the selected robust DCI format from among the plurality of DCI formats. the base station determining whether a wireless communication device , WCD, requires a downlink signal radio bearer, SRB, assignment; the base station determining a control channel element, CCE, aggregation level for a transmission to the WCD based on whether the WCD requires the SRB assignment; the base station determining whether a certain set of one or more conditions is satisfied, wherein determining whether the set of conditions is satisfied comprises the base station determining whether the determined CCE aggregation level is equal to a maximum CCE aggregation level; in response to determining that the set of conditions is satisfied, the base station selecting, from among a plurality of DCI formats corresponding to different respective DCI message sizes, a DCI format, wherein the DCI format is a robust DCI format used when the base station enters a maximum robustness state for control messages to be transmitted; the base station transmitting a control message through the SRB assignment to the WCD, wherein the control message is transmitted by using only the selected robust DCI format from among the plurality of DCI formats.
A composition comprising: (a) an ionomer that is an acid copolymer comprising ethylene and at least one of acrylic acid and methacrylic acid, wherein a portion of the acid groups in the acid copolymer are neutralized by metal ions and are carboxylic acid salts, and wherein the acid copolymer, prior to neutralization of acid groups by metal ions, comprises 5 to 30 weight percent of acrylic acid and methacrylic acid; (b) an ethylene/unsaturated ester copolymer comprising ethylene vinyl acetate, ethylene acrylate, or a combination thereof; and (c) a propylene-based polymer comprising a copolymer of propylene and a comonomer comprising ethylene, butene, hexene, or octene, wherein the propylene-based polymer has a molecular weight distribution (MWD) of less than 3.0, as determined by the method defined in the description, and a viscosity ratio (viscosity at 0.1 s -1 /viscosity at 100 s -1 ) of greater than 7.0, as determined by the method defined in the description. (a) an ionomer that is an acid copolymer comprising ethylene and at least one of acrylic acid and methacrylic acid, wherein a portion of the acid groups in the acid copolymer are neutralized by metal ions and are carboxylic acid salts, and wherein the acid copolymer, prior to neutralization of acid groups by metal ions, comprises 5 to 30 weight percent of acrylic acid and methacrylic acid; (b) an ethylene/unsaturated ester copolymer comprising ethylene vinyl acetate, ethylene acrylate, or a combination thereof; and (c) a propylene-based polymer comprising a copolymer of propylene and a comonomer comprising ethylene, butene, hexene, or octene, wherein the propylene-based polymer has a molecular weight distribution (MWD) of less than 3.0, as determined by the method defined in the description, and a viscosity ratio (viscosity at 0.1 s -1 /viscosity at 100 s -1 ) of greater than 7.0, as determined by the method defined in the description.
A method for removing one or more fucoses in a glycoprotein, the method comprising contacting the glycoprotein with an α-fucosidase comprising a polypeptide having an amino acid sequence according to SEQ ID NO: 1.
A catalyst support material comprising in the range of 60 wt% to 96 wt% alumina, calculated as Al 2 O 3 on an oxide basis, in the range of 1 wt% to 20 wt% silicon oxide, calculated as SiO 2 on an oxide basis and in the range of 2 wt% to 20 wt% titanium dioxide, calculated as TiO 2 on an oxide basis, wherein the alumina and the silicon oxide are coated with the titanium dioxide.
A synthetic resin cured by using a curable composition to produce a siloxane bond of a crosslinkable silyl group-containing polymer having a polyether or an acrylic polymer as a main chain, wherein the curable composition comprises (A) a titanium alkoxide, (B) a bidentate organic chelating agent for stabilizing the titanium alkoxide, and (C) a guanidine compound, wherein the composition comprises the titanium alkoxide (A), the bidentate organic chelating agent (B) and the guanidine compound (C) in a molar ratio of 1 : 0.5 to 3 : 0.5 to 2. (A) a titanium alkoxide, (B) a bidentate organic chelating agent for stabilizing the titanium alkoxide, and (C) a guanidine compound, wherein the composition comprises the titanium alkoxide (A), the bidentate organic chelating agent (B) and the guanidine compound (C) in a molar ratio of 1 : 0.5 to 3 : 0.5 to 2.
Household appliance having - at least one antenna in the form of a rod antenna and - a transmitter and receiver coupled to the at least one antenna and embodied to establish a mobile radio link, wherein - the at least one rod antenna is integrated into a handle piece of an elongated handle (3; 7) of the household appliance in the form of a door handle or in the form of an additional handle and - the household appliance is designed to interconnect the household appliance via data link by means of the transmitter, receiver and the antenna, characterised in that - the rod antenna is embodied as an electrically conducting part of a surface of the handle (3; 7). - at least one antenna in the form of a rod antenna and - a transmitter and receiver coupled to the at least one antenna and embodied to establish a mobile radio link, wherein - the at least one rod antenna is integrated into a handle piece of an elongated handle (3; 7) of the household appliance in the form of a door handle or in the form of an additional handle and - the household appliance is designed to interconnect the household appliance via data link by means of the transmitter, receiver and the antenna, characterised in that - the rod antenna is embodied as an electrically conducting part of a surface of the handle (3; 7).
A computer implemented method comprising: receiving, by a first security microservice , a first channel data encapsulation packet encapsulating a first encapsulation context and a first encapsulated data; performing a security service on the first encapsulated data using the first encapsulation context; transmitting, by the first security microservice, a second channel data encapsulation packet to a second security microservice , wherein the second channel encapsulation packet comprises a request for security services; receiving, by the first security microservice, a response from the second security microservice comprising a second security microservice context, a second security microservice timestamp, and a second security microservice load; generating, by the first security microservice, a timestamp and a load; and transmitting, by the first security microservice, a response to the first channel data encapsulation packet ; wherein the response includes the timestamp and load generated by the first security microservice, wherein the timestamps represent the duration of processing performed by the first and second microservices and the load generated by the first security microservice and the second load represent the loading of the first and second microservices during the time the request for security services was processed, and wherein the timestamps and loads are recorded to be used in load balancing decisions for future security service requests. receiving, by a first security microservice , a first channel data encapsulation packet encapsulating a first encapsulation context and a first encapsulated data; performing a security service on the first encapsulated data using the first encapsulation context; transmitting, by the first security microservice, a second channel data encapsulation packet to a second security microservice , wherein the second channel encapsulation packet comprises a request for security services; receiving, by the first security microservice, a response from the second security microservice comprising a second security microservice context, a second security microservice timestamp, and a second security microservice load; generating, by the first security microservice, a timestamp and a load; and transmitting, by the first security microservice, a response to the first channel data encapsulation packet ; wherein the response includes the timestamp and load generated by the first security microservice, wherein the timestamps represent the duration of processing performed by the first and second microservices and the load generated by the first security microservice and the second load represent the loading of the first and second microservices during the time the request for security services was processed, and wherein the timestamps and loads are recorded to be used in load balancing decisions for future security service requests.
Device for displaying an object comprising an exhibition area (E) and a technical area (T), said technical area (T) being above the exhibition area (E), said exhibition area (E) comprising a visibility portion (V) of the object to be exhibited (O), said exhibition area (E) being arranged to contain an object to be exhibited (O) and said technical area (T) containing means for setting in motion the object to be exhibited (O), separated in said technical area (T) and arranged to impart a movement to said object to be exhibited (O), said means for setting in motion the object to be exhibited (O) comprising at least one motorised means and at least one transmission means arranged to transmit a movement imparted by said at least one motorised means to said object to be exhibited (O), said transmission means comprising at least one suspension element (S) arranged to be connected via a first part to the object to be exhibited (O) and via a second part to said at least one motorised means, wherein said at least one suspension element (S) is a wire, the device further comprising a background (F), the device comprising at least one light source (L), the combination of said at least one light source, movement means and the background (F) is arranged to make said at least one suspension element invisible and to make the object appear to float, wherein said at least one light source (L) comprises at least one first light source (L1) and at least one second light source (L2), wherein the at least one first light source (L1) is arranged to illuminate the background (F), wherein said at least one first light source (L1) is arranged to provide indirect lighting of said object to be displayed (O) by reflecting the direct lighting of said at least one first light source (L1) through the background (F), such that the background creates complex indirect lighting reflected by the background (F) which captures the attention of a consumer's eye, plays a trick on the consumer's eye and makes the suspension element invisible to the consumer, wherein the at least one first light source (L1) is arranged such that the rays of direct light from the at least one first light source (L1) do not illuminate the object via the direct light rays coming from the at least one first light source (L1), wherein the at least one second light source (L2) is arranged to illuminate said object to be displayed (O) with direct lighting.
A winding , comprising, - a form element having a longitudinal axis (LA) defining a longitudinal direction (L) and a radial direction (R) perpendicular to the longitudinal axis (LA), the form element comprising - a core with a lateral surface, and - adjustable elements arranged on the lateral surface of the core , wherein the adjustable elements are elongated and extend along the longitudinal direction (L), wherein the adjustable elements comprise stacked layers , wherein a thickness of the adjustable elements in a radial direction (R) is altered along the longitudinal direction (L), and wherein the thickness of the adjustable elements in a radial direction (R) is altered by at least one removed or added layer along the longitudinal direction (L), and - a conductor wherein the conductor is wound around the form element along the longitudinal direction (L) forming turns of the winding . - a form element having a longitudinal axis (LA) defining a longitudinal direction (L) and a radial direction (R) perpendicular to the longitudinal axis (LA), the form element comprising - a core with a lateral surface, and - adjustable elements arranged on the lateral surface of the core , wherein the adjustable elements are elongated and extend along the longitudinal direction (L), wherein the adjustable elements comprise stacked layers , wherein a thickness of the adjustable elements in a radial direction (R) is altered along the longitudinal direction (L), and wherein the thickness of the adjustable elements in a radial direction (R) is altered by at least one removed or added layer along the longitudinal direction (L), and - a core with a lateral surface, and - adjustable elements arranged on the lateral surface of the core , wherein the adjustable elements are elongated and extend along the longitudinal direction (L), wherein the adjustable elements comprise stacked layers , wherein a thickness of the adjustable elements in a radial direction (R) is altered along the longitudinal direction (L), and wherein the thickness of the adjustable elements in a radial direction (R) is altered by at least one removed or added layer along the longitudinal direction (L), and - a conductor wherein the conductor is wound around the form element along the longitudinal direction (L) forming turns of the winding .
An implantable pacing system configured and arranged to circumnavigate a loop in a heart, comprising: a) an elongate inner tether having a proximal end and a distal end; b) an outer sheath material surrounding the elongate inner tether having a proximal end and a distal end; c) at least one electrical conductor disposed along or within at least one of the elongate inner tether and the outer sheath; d) a cardiac pacing controller including a power source, a pulse generator, and control circuity operably coupled to the at least one electrical conductor; and e) at least one cardiac pacing electrode configured and arranged to be implanted in cardiac tissue, the at least one cardiac pacing electrode being electrically coupled to the cardiac pacing controller by way of the at least one electrical conductor; and f) a removable lock securing the proximal end and distal end of the outer sheath material, wherein the lock is configured such that it can engage with and disengage from the outer sheath material so as to allow tension applied to the outer sheath material to be adjusted. a) an elongate inner tether having a proximal end and a distal end; b) an outer sheath material surrounding the elongate inner tether having a proximal end and a distal end; c) at least one electrical conductor disposed along or within at least one of the elongate inner tether and the outer sheath; d) a cardiac pacing controller including a power source, a pulse generator, and control circuity operably coupled to the at least one electrical conductor; and e) at least one cardiac pacing electrode configured and arranged to be implanted in cardiac tissue, the at least one cardiac pacing electrode being electrically coupled to the cardiac pacing controller by way of the at least one electrical conductor; and f) a removable lock securing the proximal end and distal end of the outer sheath material, wherein the lock is configured such that it can engage with and disengage from the outer sheath material so as to allow tension applied to the outer sheath material to be adjusted.
A method for aiding in the diagnosis of a SARS-CoV-2 infection comprising the step of detecting the presence or absence of an IgA class antibody to SEQ ID NO1 in a blood sample from a subject.