mhurhangee/ep-ind-claims huggingface dataset:
Aqueous polyolefin dispersion comprising a. from 50 to 100 wt.% of a aqueous dispersion A comprising the following ingredients: a. from 30 to 90 wt.% of A1, a copolymer of polyethylene and (meth)acrylic acid [E AA] or a mixture of different copolymers of polyethylene and (meth)acrylic acid, b. from 10 to 70 wt.% of A2, another polymer, not being a copolymer of polyethylene and (meth)acrylic acid, or a mixture of other polymers, and c. from 0 - 15 wt.% of additive b. from 0 to 50 wt.% of a compound B, where compound B is a material dispersable or soluble in water and different from any of the ingredients of dispersion A wherein - the wt.% of A and B is based on the solid content of the whole aqueous polyolefin dispersion, - the wt% of the ingredients of dispersion A is based on the solid content of dispersion A, - the sum of the wt.% of ingredients i to iii of dispersion A is 100%, and - A2 is selected from the group consisting of copolymers of ethylene and vinyl acetate, copolymers of ethylene and vinyl acetate modified with maleic anhydride, polyolefins modified with maleic anhydride, polyolefin elastomers, styrene butadiene block copolymers, random copolymers, ethylene-propylene-non-conjugated diene terpolymer (EPDM), maleic anhydride modified ethylene-propylene-non-conjugated diene terpolymer, and co- and terpolymers of ethane, propene, and 1-butene. a. from 50 to 100 wt.% of a aqueous dispersion A comprising the following ingredients: a. from 30 to 90 wt.% of A1, a copolymer of polyethylene and (meth)acrylic acid [E AA] or a mixture of different copolymers of polyethylene and (meth)acrylic acid, b. from 10 to 70 wt.% of A2, another polymer, not being a copolymer of polyethylene and (meth)acrylic acid, or a mixture of other polymers, and c. from 0 - 15 wt.% of additive a. from 30 to 90 wt.% of A1, a copolymer of polyethylene and (meth)acrylic acid [E AA] or a mixture of different copolymers of polyethylene and (meth)acrylic acid, b. from 10 to 70 wt.% of A2, another polymer, not being a copolymer of polyethylene and (meth)acrylic acid, or a mixture of other polymers, and c. from 0 - 15 wt.% of additive b. from 0 to 50 wt.% of a compound B, where compound B is a material dispersable or soluble in water and different from any of the ingredients of dispersion A - the wt.% of A and B is based on the solid content of the whole aqueous polyolefin dispersion, - the wt% of the ingredients of dispersion A is based on the solid content of dispersion A, - the sum of the wt.% of ingredients i to iii of dispersion A is 100%, and - A2 is selected from the group consisting of copolymers of ethylene and vinyl acetate, copolymers of ethylene and vinyl acetate modified with maleic anhydride, polyolefins modified with maleic anhydride, polyolefin elastomers, styrene butadiene block copolymers, random copolymers, ethylene-propylene-non-conjugated diene terpolymer (EPDM), maleic anhydride modified ethylene-propylene-non-conjugated diene terpolymer, and co- and terpolymers of ethane, propene, and 1-butene.
Glycolic acid or a pharmaceutically acceptable salt or ester thereof, and/or D-lactic acid or a pharmaceutically acceptable salt or ester thereof for use in the treatment of a neurodegenerative disease which is associated with a decline in mitochondrial activity.
A method performed by a user equipment, UE, for transmission timing enhancement for different numerologies in a non-terrestrial network, NTN, the method comprising: receiving downlink control information, DCI, on a downlink, DL, channel of the NTN, the DL channel being received in a first slot, the DL channel being a Physical Downlink Control Channel, PDCCH, the PDCCH reception ending in the first slot; and performing an uplink, UL, transmission on a UL channel of the NTN in a second slot separated from the first slot, wherein: the UL transmission includes Channel State Information, CSI; and a CSI reference resource that corresponds to the CSI is provided in the DL transmission in a third n - n CSI_ref, where n = n ′ − K offset ⋅ 2 μ DL 2 μ UL, wherein: n is the first slot, n CSI_ref is an offset value determined by the UE, n' the second slot in which the CSI is transmitted, μ DL is a subcarrier spacing of the DL channel, μ UL is a subcarrier spacing of the UL channel, and K offset an additional offset value for compensating a required timing advance, TA, and a processing delay for operation in the NTN. receiving downlink control information, DCI, on a downlink, DL, channel of the NTN, the DL channel being received in a first slot, the DL channel being a Physical Downlink Control Channel, PDCCH, the PDCCH reception ending in the first slot; and performing an uplink, UL, transmission on a UL channel of the NTN in a second slot separated from the first slot, wherein: the UL transmission includes Channel State Information, CSI; and a CSI reference resource that corresponds to the CSI is provided in the DL transmission in a third n - n CSI_ref, where n = n ′ − K offset ⋅ 2 μ DL 2 μ UL, wherein: n is the first slot, n CSI_ref is an offset value determined by the UE, n' the second slot in which the CSI is transmitted, μ DL is a subcarrier spacing of the DL channel, μ UL is a subcarrier spacing of the UL channel, and K offset an additional offset value for compensating a required timing advance, TA, and a processing delay for operation in the NTN. the UL transmission includes Channel State Information, CSI; and a CSI reference resource that corresponds to the CSI is provided in the DL transmission in a third n - n CSI_ref, where n = n ′ − K offset ⋅ 2 μ DL 2 μ UL, wherein: n is the first slot, n CSI_ref is an offset value determined by the UE, n' the second slot in which the CSI is transmitted, μ DL is a subcarrier spacing of the DL channel, μ UL is a subcarrier spacing of the UL channel, and K offset an additional offset value for compensating a required timing advance, TA, and a processing delay for operation in the NTN. n CSI_ref is an offset value determined by the UE, n' the second slot in which the CSI is transmitted, μ DL is a subcarrier spacing of the DL channel, μ UL is a subcarrier spacing of the UL channel, and K offset an additional offset value for compensating a required timing advance, TA, and a processing delay for operation in the NTN.
The method of manufacture of a glass block with reduced heat passage coefficient, characterized in that it involves following consequential steps: - dividing the glass block in the region of primary weld into two halves; - grounding the glass pad to desired size in the way that it overlaps the bonded edge of the block after bonding on both sides, thereby optically substituting the original weld; - removing the metal coating from the margin on entire periphery of the glass and in total margin of eight millimeters measured from the edge of the glass; - bonding the flat metal coated glass pad with increased heat reflection in between two halves of glass blocks separated from each other in the region of primary weld, where both halves of glass blocks are grounded to the size which, after bonding of all three pieces together with adhesive, corresponds with the original size of the glass block, the bonding of all three pieces is performed in shielding gas formed by argon, krypton or dried air; - performing the control of move or rotation of bonded parts; - grinding the overlapping edges of the glass pad on its entire periphery so that they copy the shape of glass block with maximum overlap of three millimeters; - measuring of the glass block and eventual removal of excessive adhesive; - verification of tightness of bonded joint by submersion in water; - drying the block; - reparation of damaged lateral coating with corresponding paint. - dividing the glass block in the region of primary weld into two halves; - grounding the glass pad to desired size in the way that it overlaps the bonded edge of the block after bonding on both sides, thereby optically substituting the original weld; - removing the metal coating from the margin on entire periphery of the glass and in total margin of eight millimeters measured from the edge of the glass; - bonding the flat metal coated glass pad with increased heat reflection in between two halves of glass blocks separated from each other in the region of primary weld, where both halves of glass blocks are grounded to the size which, after bonding of all three pieces together with adhesive, corresponds with the original size of the glass block, the bonding of all three pieces is performed in shielding gas formed by argon, krypton or dried air; - performing the control of move or rotation of bonded parts; - grinding the overlapping edges of the glass pad on its entire periphery so that they copy the shape of glass block with maximum overlap of three millimeters; - measuring of the glass block and eventual removal of excessive adhesive; - verification of tightness of bonded joint by submersion in water; - drying the block; - reparation of damaged lateral coating with corresponding paint.
An apparatus comprising: (a) a body; (b) a shaft assembly extending distally from the body, wherein the shaft assembly has a distal end; (c) a stapling head assembly located at the distal end of the shaft assembly, wherein the stapling head assembly comprises: (i) a deck member, wherein the deck member comprises: a first deck surface, wherein the first deck surface is flat, a second deck surface, wherein the second deck surface is recessed relative to the first deck surface, an outer annular array of staple openings formed through the first and second deck surfaces, an inner annular array of staple openings formed through the first and second deck surfaces, and a plurality of stand-off features extending distally from the second deck surface, (ii) a plurality of staples, and (iii) a driver operable to drive the staples through the staple openings; and (d) an anvil, wherein the anvil is operable to compress tissue against the deck surfaces, wherein the deck member defines a first angular region and a second angular region, wherein the first deck surface extends along only the first angular region, wherein the second deck surface extends along only the second angular region. (a) a body; (b) a shaft assembly extending distally from the body, wherein the shaft assembly has a distal end; (c) a stapling head assembly located at the distal end of the shaft assembly, wherein the stapling head assembly comprises: (i) a deck member, wherein the deck member comprises: a first deck surface, wherein the first deck surface is flat, a second deck surface, wherein the second deck surface is recessed relative to the first deck surface, an outer annular array of staple openings formed through the first and second deck surfaces, an inner annular array of staple openings formed through the first and second deck surfaces, and a plurality of stand-off features extending distally from the second deck surface, (ii) a plurality of staples, and (iii) a driver operable to drive the staples through the staple openings; and (i) a deck member, wherein the deck member comprises: a first deck surface, wherein the first deck surface is flat, a second deck surface, wherein the second deck surface is recessed relative to the first deck surface, an outer annular array of staple openings formed through the first and second deck surfaces, an inner annular array of staple openings formed through the first and second deck surfaces, and a plurality of stand-off features extending distally from the second deck surface, a first deck surface, wherein the first deck surface is flat, a second deck surface, wherein the second deck surface is recessed relative to the first deck surface, an outer annular array of staple openings formed through the first and second deck surfaces, an inner annular array of staple openings formed through the first and second deck surfaces, and a plurality of stand-off features extending distally from the second deck surface, (ii) a plurality of staples, and (iii) a driver operable to drive the staples through the staple openings; and (d) an anvil, wherein the anvil is operable to compress tissue against the deck surfaces,
An endoscope system, comprising: an image fiber with an image fiber main body made of a plurality of cores for forming pixels and a cladding common thereto; and a light guide fiber provided along the image fiber for transmitting a light from an illumination light source and illuminating an affected area to be treated that is placed on an objective side of the image fiber, and an optical system connected to an eyepiece side of the image fibre for taking in a two-dimensional image from the cores of the image fiber, the two-dimensional image being an image of the affected area illuminated by the light guide fiber and being transmitted to an end face of the eyepiece side, characterized in that: the optical system is adapted to cause laser light for treatment to enter only part of cores of the image fiber, wherein the optical system comprises a selecting means for selecting the part of cores where the laser light enters at the end face of the eyepiece side of the image fiber main body, and further in that: the image fiber has the cores arranged uniformly over the whole region of the cross-section of the image fiber main body, the cross-section being perpendicular to a longitudinal direction of the image fiber main body. an image fiber with an image fiber main body made of a plurality of cores for forming pixels and a cladding common thereto; and a light guide fiber provided along the image fiber for transmitting a light from an illumination light source and illuminating an affected area to be treated that is placed on an objective side of the image fiber, and an optical system connected to an eyepiece side of the image fibre for taking in a two-dimensional image from the cores of the image fiber, the two-dimensional image being an image of the affected area illuminated by the light guide fiber and being transmitted to an end face of the eyepiece side, characterized in that: the optical system is adapted to cause laser light for treatment to enter only part of cores of the image fiber, wherein the optical system comprises a selecting means for selecting the part of cores where the laser light enters at the end face of the eyepiece side of the image fiber main body, and further in that: the image fiber has the cores arranged uniformly over the whole region of the cross-section of the image fiber main body, the cross-section being perpendicular to a longitudinal direction of the image fiber main body. the optical system is adapted to cause laser light for treatment to enter only part of cores of the image fiber, wherein the optical system comprises a selecting means for selecting the part of cores where the laser light enters at the end face of the eyepiece side of the image fiber main body, and further in that: the image fiber has the cores arranged uniformly over the whole region of the cross-section of the image fiber main body, the cross-section being perpendicular to a longitudinal direction of the image fiber main body. the image fiber has the cores arranged uniformly over the whole region of the cross-section of the image fiber main body, the cross-section being perpendicular to a longitudinal direction of the image fiber main body.
A method for a device in communication with a remote device, the method comprising: receiving by the device character data from the remote device in response to a user applying the character data to a displayed target on the remote device; identifying by the device a plurality of components compatible with the character data based on the characters in the character data; providing the plurality of components to the remote device by the device; generating a selectable list of components for display on the remote device using the provided plurality of components; receiving a user selection on the remote device based on the generated list by applying the character data to the generated list, thereby obtaining a selected component; supplying the character data and the selected component to the device; and displaying on the device the selected component and applying the character data to the selected component. receiving by the device character data from the remote device in response to a user applying the character data to a displayed target on the remote device; identifying by the device a plurality of components compatible with the character data based on the characters in the character data; providing the plurality of components to the remote device by the device; generating a selectable list of components for display on the remote device using the provided plurality of components; receiving a user selection on the remote device based on the generated list by applying the character data to the generated list, thereby obtaining a selected component; supplying the character data and the selected component to the device; and displaying on the device the selected component and applying the character data to the selected component.
A communication method, comprising: storing a plurality of parameter tables, wherein storing a parameter table is performed by storing a legacy parameter table and an aggressive parameter table, wherein the plurality of parameter tables includes a MCS table, the legacy MCS table including modulation order in indexed entries, the aggressive MCS table including a higher modulation order in indexed entries than the modulation orders of the legacy MCS table; and wherein the plurality of parameter tables includes a CQI table, the legacy CQI table including modulation schemes in indexed entries, and the aggressive CQI table including a higher modulation scheme in indexed entries than the modulation schemes of the legacy CQI table, the higher modulation scheme being 256 QAM; receiving an indication for selecting a legacy parameter table or an aggressive parameter table from the stored parameter tables from a base station, wherein a number of entries in each of the aggressive parameter tables equals a number of entries in its respective legacy parameter table, and wherein when Downlink Control Information, DCI, format 1A is used for downlink transmission, the legacy MCS table is used as default setting. storing a plurality of parameter tables, wherein storing a parameter table is performed by storing a legacy parameter table and an aggressive parameter table, wherein the plurality of parameter tables includes a MCS table, the legacy MCS table including modulation order in indexed entries, the aggressive MCS table including a higher modulation order in indexed entries than the modulation orders of the legacy MCS table; and wherein the plurality of parameter tables includes a CQI table, the legacy CQI table including modulation schemes in indexed entries, and the aggressive CQI table including a higher modulation scheme in indexed entries than the modulation schemes of the legacy CQI table, the higher modulation scheme being 256 QAM; receiving an indication for selecting a legacy parameter table or an aggressive parameter table from the stored parameter tables from a base station, wherein a number of entries in each of the aggressive parameter tables equals a number of entries in its respective legacy parameter table, and wherein when Downlink Control Information, DCI, format 1A is used for downlink transmission, the legacy MCS table is used as default setting.
A switched output stage with short-circuit protection for an output transistor, comprising: a current detecting transistor having its source connected to the source and its gate connected to the gate of the output transistor; a drain voltage equalization circuit coupled to the output transistor and the current detecting transistor such that the voltages present at each terminal of the output transistor are present at each corresponding terminal of the current detecting transistor; and being characterized by an inverter (610, 612) connected to the gate of the output transistor and to the drain voltage equalization circuit to receive an over current detection signal indicative of an excess current conditions in the output transistor to short circuit protect the output transistor responsive to the over current detector signal, wherein the over current detection signal powers the inverter. a current detecting transistor having its source connected to the source and its gate connected to the gate of the output transistor; a drain voltage equalization circuit coupled to the output transistor and the current detecting transistor such that the voltages present at each terminal of the output transistor are present at each corresponding terminal of the current detecting transistor; and being characterized by an inverter (610, 612) connected to the gate of the output transistor and to the drain voltage equalization circuit to receive an over current detection signal indicative of an excess current conditions in the output transistor to short circuit protect the output transistor responsive to the over current detector signal, wherein the over current detection signal powers the inverter.
Coating installation comprising - a coating chamber and at least one substrate holder for receiving substrates to be coated that is movably arranged inside the coating chamber, and - a measuring instrument for recording measured values inside the coating chamber that is connected to the substrate holder, and - a radio device with at least -- a first radio set, which is connected to the substrate holder, and -- a second radio set, which is arranged at least partially outside the coating chamber, wherein a radio link for the transmission of the measured values between the first radio set and the second radio set exists at least for a time, and at least the first radio set and/or the measuring instrument are/is equipped with means for thermal insulation. - a coating chamber and at least one substrate holder for receiving substrates to be coated that is movably arranged inside the coating chamber, and - a measuring instrument for recording measured values inside the coating chamber that is connected to the substrate holder, and - a radio device with at least -- a first radio set, which is connected to the substrate holder, and -- a second radio set, which is arranged at least partially outside the coating chamber, -- a first radio set, which is connected to the substrate holder, and -- a second radio set, which is arranged at least partially outside the coating chamber,
Device for the pivotable connection of a driver's cab to a vehicle frame of a motor vehicle, in particular a commercial vehicle, having: a first line for connection to a component of the driver's cab; characterized by: a first longitudinal member, which is a swing arm, with: a bearing for the pivotable connection of the driver's cab to the first longitudinal member; and a first recess, which extends along a longitudinal axis of the first longitudinal member, wherein one section of the first line extends at least partially within and along the first recess. a bearing for the pivotable connection of the driver's cab to the first longitudinal member; and a first recess, which extends along a longitudinal axis of the first longitudinal member, wherein one section of the first line extends at least partially within and along the first recess.
A yeast cell comprising at least three copies of an expression construct comprising a promoter operably linked to a nucleic acid encoding a polypeptide comprising a signal sequence and a human amyloid beta protein, wherein the human amyloid beta protein is a naturally occurring wild type amyloid beta peptide or a naturally occurring mutant amyloid beta peptide, wherein expression of the nucleic acid and production of the polypeptide in the cell results in a decrease in growth or viability of the cell.