mhurhangee/ep-ind-claims huggingface dataset:
A self-adjusting variable pitch propeller for marine use, comprising a central hub with an axial propeller centre line defining the rotational axis of the propeller and a plurality of blades (50, 50') extending radially from the hub, wherein - the hub exhibits a central bore arranged to receive a rotating drive shaft, - each blade (50, 50') is pivotally fixed to the hub and pivotal about a respective blade pivot axis which extends radially from the hub through the respective blade (50, 50'), - each blade (50, 50') exhibits a leading edge (51, 51'), a trailing edge (52, 52'), a pressure side (54, 54') exhibiting a pressure side area and a suction side (53, 53') exhibiting a suction side area, characterized in that - the blades are mechanically interconnected to freely transfer pivotal movement of each blade to all other blades and wherein - the pivotal axis of each blade (50, 50') is positioned such that > 50% of the suction side (53, 53') area and of the pressure side (54, 54') area is arranged between the trailing edge (52, 52') and the pivotal axis of the respective blade (50, 50'). - the hub exhibits a central bore arranged to receive a rotating drive shaft, - each blade (50, 50') is pivotally fixed to the hub and pivotal about a respective blade pivot axis which extends radially from the hub through the respective blade (50, 50'), - each blade (50, 50') exhibits a leading edge (51, 51'), a trailing edge (52, 52'), a pressure side (54, 54') exhibiting a pressure side area and a suction side (53, 53') exhibiting a suction side area, - the blades are mechanically interconnected to freely transfer pivotal movement of each blade to all other blades and wherein - the pivotal axis of each blade (50, 50') is positioned such that > 50% of the suction side (53, 53') area and of the pressure side (54, 54') area is arranged between the trailing edge (52, 52') and the pivotal axis of the respective blade (50, 50').
A replication competent group B oncolytic adenovirus comprising a sequence of formula: 5'ITR-B 1 -B A -B 2 -B X -B B -B Y -B 3 -3'ITR wherein: B 1 comprises: E1A, E1B or E1A-E1B; B A comprises-E2B-L1-L2-L3-E2A-L4; B 2 is a bond or comprises: E3; B X is a bond or a DNA sequence comprising: a restriction site, one or more transgenes or both; B B comprises L5; B Y comprises a transgene cassette comprising a transgene and a splice acceptor sequence; and B 3 is a bond or comprises: E4, wherein the transgene cassette is under the control of an endogenous promoter selected from the group consisting of E4 and major late promoter and wherein the transgene cassette comprises a therapeutic gene encoding material selected from the group consisting of an RNAi sequence, a protein, an antibody or binding fragment thereof, a chemokine, a cytokine, an immunomodulator and an enzyme. B 1 comprises: E1A, E1B or E1A-E1B; B A comprises-E2B-L1-L2-L3-E2A-L4; B 2 is a bond or comprises: E3; B X is a bond or a DNA sequence comprising: a restriction site, one or more transgenes or both; B B comprises L5; B Y comprises a transgene cassette comprising a transgene and a splice acceptor sequence; and B 3 is a bond or comprises: E4, wherein the transgene cassette is under the control of an endogenous promoter selected from the group consisting of E4 and major late promoter and wherein the transgene cassette comprises a therapeutic gene encoding material selected from the group consisting of an RNAi sequence, a protein, an antibody or binding fragment thereof, a chemokine, a cytokine, an immunomodulator and an enzyme.
A communication method, being applied to a user equipment, UE, and comprising: obtaining a first indication indicating at least one of possible random access channel, RACH, occasion, RO, positions, actual transmitted synchronization signal block, SSB, positions, frame based equipment, FBE, frame period, FFP, information, or uplink/downlink,UL/DL, pattern within the FFP; obtaining a second indication indicating channel occupancy time, COT, information; and determining, based on the first indication and the second indication, valid RO for physical RACH, PRACH, transmission, wherein the valid RO satisfies at least one of: being not within a pre-defined range related to the transmitted SSB; not overlapping or partially overlapping with resource in which DL transmission is configured; or not entering an FFP idle part. obtaining a first indication indicating at least one of possible random access channel, RACH, occasion, RO, positions, actual transmitted synchronization signal block, SSB, positions, frame based equipment, FBE, frame period, FFP, information, or uplink/downlink,UL/DL, pattern within the FFP; obtaining a second indication indicating channel occupancy time, COT, information; and determining, based on the first indication and the second indication, valid RO for physical RACH, PRACH, transmission, being not within a pre-defined range related to the transmitted SSB; not overlapping or partially overlapping with resource in which DL transmission is configured; or not entering an FFP idle part.
A shaped wafer body, in particular an intermediate bakery product, made of a baking mass baked through under pressure and containing 55 to 70 % water in an unbaked state, - wherein the shaped wafer body comprises multiple bakery products with a bakery product thickness, which are arranged next to one another along a main plane, - wherein the shaped wafer body comprises a bakery product connection, through which the bakery products are connected to one another, - wherein, in each of the areas which directly surround the bakery products, the bakery product connection forms a separating bar with a separating bar thickness, wherein the separating bar thickness is smaller than the bakery product thickness, characterized - in that each of the separating bars extends away from the bakery product transversely to the main plane, - in that the bakery products are arranged on only one side of the main plane and in particular extend to the main plane, - in that separating bars are arranged on the other side of the main plane and extend from the main plane to a secondary plane, which extends parallel to the main plane, - and in that the distance between the main plane and the secondary plane and, consequently, the height of the separating bars measured transversely to the main plane is more than 2 mm and in particular between 3 mm and 10 mm. - wherein the shaped wafer body comprises multiple bakery products with a bakery product thickness, which are arranged next to one another along a main plane, - wherein the shaped wafer body comprises a bakery product connection, through which the bakery products are connected to one another, - wherein, in each of the areas which directly surround the bakery products, the bakery product connection forms a separating bar with a separating bar thickness, wherein the separating bar thickness is smaller than the bakery product thickness, - in that each of the separating bars extends away from the bakery product transversely to the main plane, - in that the bakery products are arranged on only one side of the main plane and in particular extend to the main plane, - in that separating bars are arranged on the other side of the main plane and extend from the main plane to a secondary plane, which extends parallel to the main plane, - and in that the distance between the main plane and the secondary plane and, consequently, the height of the separating bars measured transversely to the main plane is more than 2 mm and in particular between 3 mm and 10 mm.
Contact element, having: a contact body which extends along a longitudinal axis, a cable holder which is connected to the contact body and extends along the longitudinal axis, wherein the cable holder has at least one holding section for securing litz wires of a section of a cable, which section has been stripped of insulation, to the cable holder, a protection element, characterized in that the protection element can be moved along the longitudinal axis from a first position to a second position, wherein the protection element covers the cable holder in the second position, wherein the contact body has a latching element which can spring elastically outwards and is suitable for latching in a contact housing, wherein the latching element, in the first position of the protection element, is covered by the protection element and is prestressed in the direction of the contact body transversely to the longitudinal axis, and in that the latching element, in the second position of the protection element, is released by the protection element and protrudes outwards from the contact body. a contact body which extends along a longitudinal axis, a cable holder which is connected to the contact body and extends along the longitudinal axis, wherein the cable holder has at least one holding section for securing litz wires of a section of a cable, which section has been stripped of insulation, to the cable holder, a protection element, characterized in that the protection element can be moved along the longitudinal axis from a first position to a second position, wherein the protection element covers the cable holder in the second position, wherein the contact body has a latching element which can spring elastically outwards and is suitable for latching in a contact housing, wherein the latching element, in the first position of the protection element, is covered by the protection element and is prestressed in the direction of the contact body transversely to the longitudinal axis, and in that the latching element, in the second position of the protection element, is released by the protection element and protrudes outwards from the contact body.
A method of wireless communication by an integrated access and backhauling node in a network, comprising: receiving a medium access control, MAC, control element, CE, indicating one or more sets of guard symbol values associated with a mobile termination, MT, and a distributed unit, DU; receiving a radio resource control, RRC, message indicating association of each set of the one or more sets of guard symbol values with a corresponding MT cell and a corresponding DU cell, wherein the corresponding MT cell is among one or more MT cells associated with the MT and the corresponding DU cell is among one or more DU cells associated with the DU; identifying, for an MT cell and a DU cell, a set of guard symbol values from the one or more sets of guard symbol values, based on the association indicated by the RRC message; transitioning from first communication via the MT cell to second communication via the DU cell or from the second communication via the DU cell to the first communication via the MT cell during at least a guard symbol signaled by a guard symbol value of the set of guard symbol values; and transmitting or receiving information via the transitioned MT cell or the transitioned DU cell. receiving a medium access control, MAC, control element, CE, indicating one or more sets of guard symbol values associated with a mobile termination, MT, and a distributed unit, DU; receiving a radio resource control, RRC, message indicating association of each set of the one or more sets of guard symbol values with a corresponding MT cell and a corresponding DU cell, wherein the corresponding MT cell is among one or more MT cells associated with the MT and the corresponding DU cell is among one or more DU cells associated with the DU; identifying, for an MT cell and a DU cell, a set of guard symbol values from the one or more sets of guard symbol values, based on the association indicated by the RRC message; transitioning from first communication via the MT cell to second communication via the DU cell or from the second communication via the DU cell to the first communication via the MT cell during at least a guard symbol signaled by a guard symbol value of the set of guard symbol values; and transmitting or receiving information via the transitioned MT cell or the transitioned DU cell.
Arrangement for generating a light effect, with several surface structures (11, 12, 13) arranged at least partially overlapping in an observation direction, with a darkening surface structure which has a light incidence side and a light emergence side, and which comprises at least one passage region and at least one screening region, wherein the light hitting the light incidence side passes at least partially through the at least one passage region and emerges on the light emergence side, wherein the intensity reduction of the light hitting the at least one screening region on the light incidence side is greater than the intensity reduction of the light hitting the at least one passage region, with at least one effect surface structure made of a textile material which comprises a back side facing the light emergence side of the darkening surface structure and an observation side, wherein the effect surface structure is arranged at a distance from the darkening surface structure, and wherein the light hitting the back side is at least partially reflected and/or scattered and or refracted and/or bent, and emerges at least partially at the observation side, with a divergence surface structure which is configured to convert at least substantially parallel incident light into divergent light, characterised in that the divergence surface structure comprises a film material and/or fibre material and/or textile material.
A method for translating instructions for a processor, comprising: accessing a plurality of guest instructions that comprise multiple guest branch instructions; assembling the plurality of guest instructions into a guest instruction block; translating the guest instruction block into a corresponding native conversion block; storing the native conversion block into a native cache; storing a mapping of the guest instruction block to corresponding native conversion block in a conversion look aside buffer; upon a subsequent request for a guest instruction, indexing the conversion look aside buffer to determine whether a hit occurred, wherein the hit is determined to occur if the mapping indicates the guest instruction has a corresponding converted native instruction in the native cache; forwarding the converted native instruction for execution in response to a determination that the hit occurred, wherein the plurality of guest instructions concludes with a far branch instruction, wherein the far branch instruction comprises a target address outside of the guest instruction block; and checking for the corresponding converted native instruction in a system memory in response to a determination that the hit did not occur. accessing a plurality of guest instructions that comprise multiple guest branch instructions; assembling the plurality of guest instructions into a guest instruction block; translating the guest instruction block into a corresponding native conversion block; storing the native conversion block into a native cache; storing a mapping of the guest instruction block to corresponding native conversion block in a conversion look aside buffer; upon a subsequent request for a guest instruction, indexing the conversion look aside buffer to determine whether a hit occurred, wherein the hit is determined to occur if the mapping indicates the guest instruction has a corresponding converted native instruction in the native cache; forwarding the converted native instruction for execution in response to a determination that the hit occurred, wherein the plurality of guest instructions concludes with a far branch instruction, wherein the far branch instruction comprises a target address outside of the guest instruction block; and checking for the corresponding converted native instruction in a system memory in response to a determination that the hit did not occur.
A process for preparing gamma-butyrolactone, a gamma-butyrolactone derivative, furanone, dialkyl succinate, a by-product, or a mixture thereof, comprising: reacting a solution of a homoserine-based compound with NO x (step 1); and recovering gamma-butyrolactone, a gamma-butyrolactone derivative, furanone, dialkyl succinate, a by-product, or a mixture thereof from the products obtained in step 1 (step 2), wherein, in step 1, x is any of 1, 1.5, 2, and 3, wherein NO x, in a form of gas directly, reacts with the homoserine-based compound in step 1, wherein the homoserine-based compound is homoserine, homoserine lactone, O-acetylhomoserine, O-succinyl homoserine, homoserine lactone hydrochloride, homoserine lactone hydrobromide, or a mixture thereof, wherein the gamma-butyrolactone derivative is halo-gamma-butyrolactone, hydroxy-gamma-butyrolactone, methoxy-gamma-butyrolactone, acetoxy-gamma-butyrolactone, or a mixture thereof, and wherein the by-product is succinic acid, succinic anhydride, acetic acid, acetic anhydride, 2,4-dihydroxybutanoic acid, 4-hydroxy-2-butenoic acid methyl ester, 4-hydroxy-2-methoxybutanoic acid, 4-hydroxy-2-chlorobutanoic acid, or a mixture thereof. reacting a solution of a homoserine-based compound with NO x (step 1); and recovering gamma-butyrolactone, a gamma-butyrolactone derivative, furanone, dialkyl succinate, a by-product, or a mixture thereof from the products obtained in step 1 (step 2), wherein, in step 1, x is any of 1, 1.5, 2, and 3, wherein NO x, in a form of gas directly, reacts with the homoserine-based compound in step 1, wherein the homoserine-based compound is homoserine, homoserine lactone, O-acetylhomoserine, O-succinyl homoserine, homoserine lactone hydrochloride, homoserine lactone hydrobromide, or a mixture thereof, wherein the gamma-butyrolactone derivative is halo-gamma-butyrolactone, hydroxy-gamma-butyrolactone, methoxy-gamma-butyrolactone, acetoxy-gamma-butyrolactone, or a mixture thereof, and wherein the by-product is succinic acid, succinic anhydride, acetic acid, acetic anhydride, 2,4-dihydroxybutanoic acid, 4-hydroxy-2-butenoic acid methyl ester, 4-hydroxy-2-methoxybutanoic acid, 4-hydroxy-2-chlorobutanoic acid, or a mixture thereof.
A glass composition, especially a contrast enhancing glass, preferably a contrast enhancing sunglass comprising: 45-65 wt.-%, preferably 50-60 wt.-% SiO 2 0-12 wt.-%, preferably 5-10 wt.-% B 2 O 3 0-15 wt.-%, preferably 5-15 wt.-% Na 2 O 0-10 wt.-%, preferably 1-5 wt.-% K 2 O 0-7 wt.-%, preferably 1-5 wt.-% ZnO, characterized in that the glass composition further comprises: 5-12 wt.-%, preferably 5-11 wt.-% Nd 2 O 3, most prefered 6-10 wt.-% Nd 2 O 3 1-10 wt.-%, preferably 5-7 wt.-% Er 2 O 3 0.5-8 wt.-%, preferably 1-5 wt.-% Ho 2 O 3 0.00-0.05 wt.-%, preferably 0.01 - 0.04 wt.-%, especially 0.02-0.04 wt.-% NiO and the glass beside impurities caused by the raw material is free of copper and/or bromine. 45-65 wt.-%, preferably 50-60 wt.-% SiO 2 0-12 wt.-%, preferably 5-10 wt.-% B 2 O 3 0-15 wt.-%, preferably 5-15 wt.-% Na 2 O 0-10 wt.-%, preferably 1-5 wt.-% K 2 O 0-7 wt.-%, preferably 1-5 wt.-% ZnO, 5-12 wt.-%, preferably 5-11 wt.-% Nd 2 O 3, most prefered 6-10 wt.-% Nd 2 O 3 1-10 wt.-%, preferably 5-7 wt.-% Er 2 O 3 0.5-8 wt.-%, preferably 1-5 wt.-% Ho 2 O 3 0.00-0.05 wt.-%, preferably 0.01 - 0.04 wt.-%, especially 0.02-0.04 wt.-% NiO and the glass beside impurities caused by the raw material is free of copper and/or bromine.
Electronically controlled door latch for a motor vehicle, the electronically controlled door latch being configured for operating in at least three different operation conditions including a normal operating condition, a sleep operating condition and a crash operating condition, and comprising a system basis chip configured for receiving a main supply voltage (Vbatt) from a main power source of the motor vehicle during the normal operating condition and a backup supply voltage (Vsc) during the crash operating condition, an electric motor configured for actuating the electronically controlled door latch based on the main supply voltage (Vbatt) during the normal operating condition and on the backup supply voltage (Vsc) during the crash operating condition, and an electronic control unit configured, when being triggered by the system basis chip, for falling asleep during the sleep operating condition and for being woken up during the normal operating condition and the crash operating condition and configured for controlling the electric motor during the normal operating condition and during the crash operating condition. a system basis chip configured for receiving a main supply voltage (Vbatt) from a main power source of the motor vehicle during the normal operating condition and a backup supply voltage (Vsc) during the crash operating condition, an electric motor configured for actuating the electronically controlled door latch based on the main supply voltage (Vbatt) during the normal operating condition and on the backup supply voltage (Vsc) during the crash operating condition, and an electronic control unit configured, when being triggered by the system basis chip, for falling asleep during the sleep operating condition and for being woken up during the normal operating condition and the crash operating condition and configured for controlling the electric motor during the normal operating condition and during the crash operating condition.
Actuator for a lift installation, which can adopt an activated state and a triggered state, with a resetting element for bringing the actuator from the triggered state to the activated state, characterised in that the resetting element is made from a shape memory alloy and takes on a first length at a first temperature and a second length at a second temperature, wherein the resetting element is designed to change, after triggering of the actuator, from the first length to the second length and back to the first length and in that case resets the actuator to the activated state.
Method for the fully or partially autonomous driving of a vehicle along a trained reference trajectory, characterized in that, when an obstacle in the area of the trained reference trajectory is detected by means of at least one sensor, an evasive trajectory is adopted, wherein a point along the way that has already been driven along, lying further back opposite to the direction of movement of the vehicle so far, is chosen as the starting point of the evasive trajectory and the vehicle is driven back, opposite to the direction of movement so far, to the starting point of the evasive trajectory and is subsequently driven on the evasive trajectory in the original direction of movement past the obstacle to the trained reference trajectory, wherein the dimensions and the direction of movement of the obstacle, both in the movement of the vehicle in the original direction of movement to the obstacle and opposite to the direction of movement so far away from it, are recorded by means of at least one sensor and the starting point of the evasive trajectory is established on the basis of a comparison of the sensor data from both directions of movement.
Pneumatic vehicle tyre having a sound-absorbing inner absorber which is adhesively attached in the interior of said tyre to the inner surface opposite from the tread, wherein the inner absorber adheres to a self-sealing sealant, which at least immediately after its application has a tackiness required for the purposes of adhesive attachment, wherein a separating layer is arranged between the sealant and the inner absorber, characterized in that the separating layer is made in such a way as to ensure a flowability of the sealant that is sufficient for the purposes of sealing and also a reliable adhesion of the inner absorber, and in that the separating layer is a film which has adhesion-reducing properties at least on the surface that is facing the sealant.