mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: - a bottle blowing machine having a machine frame and a bottom mould, - a bilateral locking mechanism for a bottom mould, mounted on the bottle blowing machine, characterized in that the locking mechanism comprises: - a rotation shaft rotatable around a first axis and a power source for driving the rotation of the rotation shaft; - a plurality of sliding blocks (31, 32) slidably disposed (33, 34) on the machine frame of the bottle blowing machine and multiple swing members (35, 36) swingably disposed on the machine frame, for driving the movement of the plurality of sliding blocks (31, 32) during it's swinging; and - a rotation member fixedly disposed on the rotation shaft for driving the swinging of the multiple swing members (35, 36); wherein when the locking mechanism is in a locked state, the plurality of sliding blocks are inserted between the bottom mould and the machine frame and contacts against the bottom mould, and wherein when the locking mechanism is in an unlocked state, the sliding blocks are detached from the bottom mould. - a bottle blowing machine having a machine frame and a bottom mould, - a bilateral locking mechanism for a bottom mould, mounted on the bottle blowing machine, - a rotation shaft rotatable around a first axis and a power source for driving the rotation of the rotation shaft; - a plurality of sliding blocks (31, 32) slidably disposed (33, 34) on the machine frame of the bottle blowing machine and multiple swing members (35, 36) swingably disposed on the machine frame, for driving the movement of the plurality of sliding blocks (31, 32) during it's swinging; and - a rotation member fixedly disposed on the rotation shaft for driving the swinging of the multiple swing members (35, 36);
Aqueous liquid detergent composition containing up to about 85% by weight and in particular from 40% by weight to 85% by weight of water, it also being possible, if desired, to exchange this proportionally for a water-soluble solvent component or a water-soluble solvent component being additionally present, surfactant and other customary ingredients of detergents and cleaning compositions, the composition containing sulphoethylcellulose with a degree of substitution of 0.3 to 0.9 and/or its salt.
A recombinant Bifidobacterium, comprising a nucleic acid encoding a fusion protein comprising a signal peptide, one or more V HH antibodies of the family Camelidae, and one or more functional proteins selected from exotoxins, labeling proteins, enzymatic labels, or combinations thereof, in a secretable state, wherein the V HH antibodies of the family Camelidae recognize and bind to the surface antigen of a tumor cell.
A receiver configured to provide an activation signal to a device (22, 24, 26, 231) in order to transition the device from a dormant state to an operative state, wherein the receiver comprises: - a sensor, being one of an optical sensor, an acoustic sensor, and a magnetic field sensor, wherein the sensor is configured to receive a wireless signal from an external source and to generate a detector signal in response to the received wireless signal; characterized in that the receiver further comprises: - a super regenerative oscillator, SRO, circuit, electrically coupled to the sensor to receive the detector signal, and configured to electrically oscillate with a constant SRO frequency and with a SRO amplitude (As) that changes when a carrier frequency of the detector signal matches the SRO frequency, and - a processing device (36, 38), configured to monitor the SRO amplitude in time, and to generate the activation signal when a temporal characteristic (Sc) of the monitored SRO amplitude (As) matches a predetermined reference pattern. - a sensor, being one of an optical sensor, an acoustic sensor, and a magnetic field sensor, wherein the sensor is configured to receive a wireless signal from an external source and to generate a detector signal in response to the received wireless signal; characterized in that the receiver further comprises: - a super regenerative oscillator, SRO, circuit, electrically coupled to the sensor to receive the detector signal, and configured to electrically oscillate with a constant SRO frequency and with a SRO amplitude (As) that changes when a carrier frequency of the detector signal matches the SRO frequency, and - a processing device (36, 38), configured to monitor the SRO amplitude in time, and to generate the activation signal when a temporal characteristic (Sc) of the monitored SRO amplitude (As) matches a predetermined reference pattern. - a super regenerative oscillator, SRO, circuit, electrically coupled to the sensor to receive the detector signal, and configured to electrically oscillate with a constant SRO frequency and with a SRO amplitude (As) that changes when a carrier frequency of the detector signal matches the SRO frequency, and - a processing device (36, 38), configured to monitor the SRO amplitude in time, and to generate the activation signal when a temporal characteristic (Sc) of the monitored SRO amplitude (As) matches a predetermined reference pattern.
An ink supply device, comprising: an ink storage section connected with an inkjet head and configured to store ink to be supplied to the inkjet head; a float comprising a float main body and being arranged in the ink storage section configured to float on a liquid surface of the ink to indicate a height of the ink in the ink storage section; and a floating position detection device configured to detect a floating position of the float in the ink storage section, wherein the float is supported rotatably around a rotating shaft in the ink storage section; the floating position detection device comprises a detection target arranged on the float, and a target detection section which is arranged in the ink storage section and detects a position of the detection target; and the target detection section is arranged on a wall orthogonal to an axial direction of the rotating shaft of the float and facing the axial direction of the rotating shaft of the ink storage section characterized in that the float comprises a projection facing an inner surfaces of the wall and being projected at left and right side surfaces of the float main body. an ink storage section connected with an inkjet head and configured to store ink to be supplied to the inkjet head; a float comprising a float main body and being arranged in the ink storage section configured to float on a liquid surface of the ink to indicate a height of the ink in the ink storage section; and a floating position detection device configured to detect a floating position of the float in the ink storage section, wherein the float is supported rotatably around a rotating shaft in the ink storage section; the floating position detection device comprises a detection target arranged on the float, and a target detection section which is arranged in the ink storage section and detects a position of the detection target; and the target detection section is arranged on a wall orthogonal to an axial direction of the rotating shaft of the float and facing the axial direction of the rotating shaft of the ink storage section characterized in that the float comprises a projection facing an inner surfaces of the wall and being projected at left and right side surfaces of the float main body.
An electronics enclosure arrangement for an electric device,,, said electric device,, comprising one or more circuit boards and electronics components, assembled on said one or more circuit boards, wherein said electronics enclosure arrangement comprises: - an electronics enclosure cover; and - an at least one volume element part,,, arranged in the space between said electronics enclosure cover and said one or more circuit boards with said electronics components,, characterized in that said at least one volume element part,,, comprises an at least one bubble structure sheet, or an at least one pillow structure sheet,, - said at least one bubble structure sheet, having a sheet frame, with one or more bubbles,,, arranged within said sheet frame,, and - said at least one pillow structure sheet, having an at least partly hollow structure consisting of one or more pillows arranged inside said at least one pillow structure sheet,. - an electronics enclosure cover; and - an at least one volume element part,,, arranged in the space between said electronics enclosure cover and said one or more circuit boards with said electronics components,, - said at least one bubble structure sheet, having a sheet frame, with one or more bubbles,,, arranged within said sheet frame,, and - said at least one pillow structure sheet, having an at least partly hollow structure consisting of one or more pillows arranged inside said at least one pillow structure sheet,.
A compound with the following formula: wherein n is an integer selected from 0 to 6; R 1 is selected from the group consisting of, and when R 1 is R 1 ', R 2 ', R 3 ', R 4 ', and R 5 ' are independently selected from the group consisting of OH, NH 2, SH, CN, H, OAc, and OMe, when R 1 is A, B, X, Y, and Z are independently C or N, when R 1 is R 1 ', R 2 ', R 3 ', R 4 ', and R 5 ' are independently selected from the group consisting of OH, NH 2, SH, H, OAc, and OMe, when R 1 is A, X, Y, and Z are independently selected from the group consisting of - m-, O, N, and S, m is an integer selected from 0 to 2; R 2, R 3, and R 4 are independently selected from the group consisting of H, methyl, ethyl, propyl, isopropyl, phenyl, OH, NH 2, SH, and CN; R 5, R 6, R 7, and R 8 are independently selected from the group consisting of methyl, ethyl, propyl, isopropyl, phenyl, OH, NH 2, SH, and CN; R 9 and R 10 are independently selected from the group consisting of OH, NH 2, SH, CN, and hydrogen; R 11, R 12, R 13, and R 14 are independently selected from the group consisting of hydrogen and methyl; R 15 and R 16 are independently selected from the group consisting of OH, NH 2, SH, CN and hydrogen; " --- " represents a single bond or a double bond with E or Z configuration; and the amino acids with residues 1 to 4 are selected from the group consisting of or residue 1, 2, 3, or 4 and the adjacent nitrogen form n is an integer selected from 0 to 6; R 1 is selected from the group consisting of, and when R 1 is R 1 ', R 2 ', R 3 ', R 4 ', and R 5 ' are independently selected from the group consisting of OH, NH 2, SH, CN, H, OAc, and OMe, when R 1 is A, B, X, Y, and Z are independently C or N, when R 1 is R 1 ', R 2 ', R 3 ', R 4 ', and R 5 ' are independently selected from the group consisting of OH, NH 2, SH, H, OAc, and OMe, when R 1 is A, X, Y, and Z are independently selected from the group consisting of - m-, O, N, and S, m is an integer selected from 0 to 2; R 2, R 3, and R 4 are independently selected from the group consisting of H, methyl, ethyl, propyl, isopropyl, phenyl, OH, NH 2, SH, and CN; R 5, R 6, R 7, and R 8 are independently selected from the group consisting of methyl, ethyl, propyl, isopropyl, phenyl, OH, NH 2, SH, and CN; R 9 and R 10 are independently selected from the group consisting of OH, NH 2, SH, CN, and hydrogen; R 11, R 12, R 13, and R 14 are independently selected from the group consisting of hydrogen and methyl; R 15 and R 16 are independently selected from the group consisting of OH, NH 2, SH, CN and hydrogen; " --- " represents a single bond or a double bond with E or Z configuration; and the amino acids with residues 1 to 4 are selected from the group consisting of or residue 1, 2, 3, or 4 and the adjacent nitrogen form
A method by one or more network devices to identify an originating point of failure in a composite service executed in a cloud computing environment, the method comprising: causing the composite service to be executed in the cloud computing environment, wherein the execution of the composite service includes execution of a plurality of atomic services in a predefined ordered sequence, wherein each of the atomic services is associated with a private key and a corresponding public key, wherein for each atomic service that is executed as part of the execution of the composite service, an execution trace for that atomic service is stored in a blockchain to form an ordered sequence of execution traces, wherein the execution trace for a given atomic service indicates an execution input of that atomic service and an execution output of that atomic service and is signed using the private key associated with that atomic service; determining that a failure occurred during execution of the composite service; and responsive to determining that the failure occurred, analyzing one or more of the ordered sequence of execution traces in reverse order to determine which of the plurality of atomic services originated the failure, wherein each execution trace that is analyzed is authenticated using the public key that corresponds to the private key associated with the atomic service that generated that execution trace. causing the composite service to be executed in the cloud computing environment, wherein the execution of the composite service includes execution of a plurality of atomic services in a predefined ordered sequence, wherein each of the atomic services is associated with a private key and a corresponding public key, wherein for each atomic service that is executed as part of the execution of the composite service, an execution trace for that atomic service is stored in a blockchain to form an ordered sequence of execution traces, wherein the execution trace for a given atomic service indicates an execution input of that atomic service and an execution output of that atomic service and is signed using the private key associated with that atomic service; determining that a failure occurred during execution of the composite service; and responsive to determining that the failure occurred, analyzing one or more of the ordered sequence of execution traces in reverse order to determine which of the plurality of atomic services originated the failure, wherein each execution trace that is analyzed is authenticated using the public key that corresponds to the private key associated with the atomic service that generated that execution trace.
A shouldering type power supply device including a battery case housing a battery, and a carrier for detachably keeping the battery case, wherein the carrier comprises: a back plate; a shoulder belt attached to the back plate; and a cover structure attached to the back plate, the cover structure comprising: an upper cover made from an elastically-deformable material for covering an upper part of the battery case, the upper cover forming a cushioning member capable of absorbing an impact to the battery case when the shouldering type power supply device falls to the ground, and the upper cover being equipped with an upper belt; and a lower cover made from an elastically-deformable material for covering a lower part of the battery case, the lower cover being away from the upper cover in an upper-lower direction, the lower cover forming a cushioning member capable of absorbing an impact to the battery case when the shouldering type power supply device falls to the ground, and the lower cover being equipped with an lower belt connected to the upper belt. a back plate; a shoulder belt attached to the back plate; and a cover structure attached to the back plate, the cover structure comprising: an upper cover made from an elastically-deformable material for covering an upper part of the battery case, the upper cover forming a cushioning member capable of absorbing an impact to the battery case when the shouldering type power supply device falls to the ground, and the upper cover being equipped with an upper belt; and a lower cover made from an elastically-deformable material for covering a lower part of the battery case, the lower cover being away from the upper cover in an upper-lower direction, the lower cover forming a cushioning member capable of absorbing an impact to the battery case when the shouldering type power supply device falls to the ground, and the lower cover being equipped with an lower belt connected to the upper belt. an upper cover made from an elastically-deformable material for covering an upper part of the battery case, the upper cover forming a cushioning member capable of absorbing an impact to the battery case when the shouldering type power supply device falls to the ground, and the upper cover being equipped with an upper belt; and a lower cover made from an elastically-deformable material for covering a lower part of the battery case, the lower cover being away from the upper cover in an upper-lower direction, the lower cover forming a cushioning member capable of absorbing an impact to the battery case when the shouldering type power supply device falls to the ground, and the lower cover being equipped with an lower belt connected to the upper belt.
A system for characterizing a condition of a vessel wall of a living being, the system comprising: - at least one instrument configured for providing a temporal pressure measurement signal of a pulsatile blood motion within the vessel; - an imaging unit configured for providing morphological information of the vessel, wherein the at least one instrument is trackable by the imaging unit with respect to a morphology of the vessel; and - an apparatus comprising a processor for processing measurement signals; wherein the imaging unit or the at least one instrument is configured for providing a temporal flow measurement signal of the pulsatile blood motion within the vessel; wherein the apparatus is configured to receive the temporal flow measurement signal and the temporal pressure measurement signal of the pulsatile blood motion within the vessel; and wherein the processor is configured to ascertain a phase difference (630, 631) between the temporal pressure measurement signal and the temporal flow measurement signal, indicative of the condition of the vessel wall. - at least one instrument configured for providing a temporal pressure measurement signal of a pulsatile blood motion within the vessel; - an imaging unit configured for providing morphological information of the vessel, wherein the at least one instrument is trackable by the imaging unit with respect to a morphology of the vessel; and - an apparatus comprising a processor for processing measurement signals; wherein the imaging unit or the at least one instrument is configured for providing a temporal flow measurement signal of the pulsatile blood motion within the vessel; wherein the apparatus is configured to receive the temporal flow measurement signal and the temporal pressure measurement signal of the pulsatile blood motion within the vessel; and wherein the processor is configured to ascertain a phase difference (630, 631) between the temporal pressure measurement signal and the temporal flow measurement signal, indicative of the condition of the vessel wall.
A household appliance comprising a body, a door providing access into the body and a hollow handle produced by extrusion from plastic material, providing the door to be opened/closed, characterized by - the handle that is produced as an initially flat handle, - a curved rod that is placed into the handle and that gives shape to the handle, - a channel with a width almost same as the width of the rod, that extends in the handle, almost along the handle and wherein the rod is placed, - two housings arranged on the door and two support members that are mounted to the ends of the handle and that provide the handle to be fixed to the door by being placed into the housings. - the handle that is produced as an initially flat handle, - a curved rod that is placed into the handle and that gives shape to the handle, - a channel with a width almost same as the width of the rod, that extends in the handle, almost along the handle and wherein the rod is placed, - two housings arranged on the door and two support members that are mounted to the ends of the handle and that provide the handle to be fixed to the door by being placed into the housings.
A semiconductor device, comprising: gate layers and insulating layers (104, 114) that are stacked alternatingly along a first direction perpendicular to a substrate of the semiconductor device in a first region upon the substrate, wherein the gate layers and the insulating layers (104, 114) are stacked of a stair-step form in a second region upon the substrate; a channel structure that is disposed in the first region and extends in the first direction, wherein the channel structure extends through the gate layers and the insulating layers (104, 114), and the channel structure and the gate layers form a stack of transistors in a series configuration with the gate layers being gates for the transistors; a contact structure (145, 155, 165) disposed in the second region to form a conductive connection with one of the gate layers; and a first dummy channel structure (141, 151, 161) disposed in the second region and around the contact structure (145, 155, 165), the first dummy channel structure (141, 151, 161) being patterned with a first shape that is different from a second shape of the channel structure, which has a circular shape at a horizontal cross-section of the semiconductor device, wherein the first dummy channel structure (141, 151, 161)has a non-circular-shape at the horizontal cross-section, characterized in that, multiple dummy channel structures (141, 151, 161) of the first dummy channel structures are disposed around the contact structure (145, 155, 165) in a non-symmetric configuration with regard to the contact structure (145, 155, 165). gate layers and insulating layers (104, 114) that are stacked alternatingly along a first direction perpendicular to a substrate of the semiconductor device in a first region upon the substrate, wherein the gate layers and the insulating layers (104, 114) are stacked of a stair-step form in a second region upon the substrate; a channel structure that is disposed in the first region and extends in the first direction, wherein the channel structure extends through the gate layers and the insulating layers (104, 114), and the channel structure and the gate layers form a stack of transistors in a series configuration with the gate layers being gates for the transistors; a contact structure (145, 155, 165) disposed in the second region to form a conductive connection with one of the gate layers; and a first dummy channel structure (141, 151, 161) disposed in the second region and around the contact structure (145, 155, 165), the first dummy channel structure (141, 151, 161) being patterned with a first shape that is different from a second shape of the channel structure, which has a circular shape at a horizontal cross-section of the semiconductor device, wherein the first dummy channel structure (141, 151, 161)has a non-circular-shape at the horizontal cross-section,
A lighting device, in particular a ceiling, wall, floor or outside light, having a punctiform light source, preferably in the form of an LED, und having a lens assigned to the light source, said lens having a light entry recess in the form of a bowl or blind hole, which directs at least part of the incident light, directly or indirectly, onto a totally reflecting and/or mirrored lateral area of the lens, which in turn directs the light onto a light exit surface by means of total reflection and/or reflection, said light exit surface forming a front side of the lens located opposite the light entry recess, characterized in that the lateral area of the lens is provided with a plurality of facets shaped such that the light beams deflected by the lateral area cross one another even before reaching the light exit surface, wherein the facets are arranged in a regular pattern comprising at least five rings surrounding the lateral area and arranged superimposed on one another on the lateral area, each of the rings comprising at least twelve facets, and wherein the light exit surface has a facet-free and smooth design.