mhurhangee/patent-ind-claim-en huggingface dataset:
Packaging material sealing device , in particular cross seam packaging material sealing device for a vertical packaging machine, comprising: - a first sealing jaw and at least a second sealing jaw ; - at least one movement unit for actuating the two sealing jaws along a sealing direction ; and - at least one control unit , wherein in at least one operating state the control unit controls a rotation of the two sealing jaws relative, in particular perpendicular, to a transport direction of a packaging material , characterized in that at least two guiding rails of the movement unit for moving the two sealing jaws along at least the sealing direction each have clearance with respect to their bearings in order to allow the rotation of the two sealing jaws relative to the transport direction . - a first sealing jaw and at least a second sealing jaw ; - at least one movement unit for actuating the two sealing jaws along a sealing direction ; and - at least one control unit , wherein in at least one operating state the control unit controls a rotation of the two sealing jaws relative, in particular perpendicular, to a transport direction of a packaging material , characterized in that at least two guiding rails of the movement unit for moving the two sealing jaws along at least the sealing direction each have clearance with respect to their bearings in order to allow the rotation of the two sealing jaws relative to the transport direction .
A shovel, comprising: a first pump configured to suck hydraulic oil from a hydraulic oil tank (T) and to discharge a first hydraulic oil; a second pump configured to suck hydraulic oil from the hydraulic oil tank (T) and to discharge a second hydraulic oil; a pump/motor configured to discharge a third hydraulic oil; a first hydraulic actuator ; and a second hydraulic actuator configured such that at least the second hydraulic oil can flow into the second hydraulic actuator ; characterized in that the first hydraulic actuator is configured such that at least the first hydraulic oil and the second hydraulic oil can flow into the first hydraulic actuator , and when the first hydraulic actuator and the second hydraulic actuator operate simultaneously, the first hydraulic actuator is actuated by the first hydraulic oil or the third hydraulic oil, and the second hydraulic actuator is actuated by the second hydraulic oil. a first pump configured to suck hydraulic oil from a hydraulic oil tank (T) and to discharge a first hydraulic oil; a second pump configured to suck hydraulic oil from the hydraulic oil tank (T) and to discharge a second hydraulic oil; a pump/motor configured to discharge a third hydraulic oil; a first hydraulic actuator ; and a second hydraulic actuator configured such that at least the second hydraulic oil can flow into the second hydraulic actuator ; characterized in that the first hydraulic actuator is configured such that at least the first hydraulic oil and the second hydraulic oil can flow into the first hydraulic actuator , and when the first hydraulic actuator and the second hydraulic actuator operate simultaneously, the first hydraulic actuator is actuated by the first hydraulic oil or the third hydraulic oil, and the second hydraulic actuator is actuated by the second hydraulic oil. the first hydraulic actuator is configured such that at least the first hydraulic oil and the second hydraulic oil can flow into the first hydraulic actuator , and when the first hydraulic actuator and the second hydraulic actuator operate simultaneously, the first hydraulic actuator is actuated by the first hydraulic oil or the third hydraulic oil, and the second hydraulic actuator is actuated by the second hydraulic oil.
A bone, cartilage, and disk removal tool assembly comprising: - a housing , said housing including a guide , said guide being constructed and arranged to guide a shuttle slidably mounted on said guide for reciprocating lateral translation along said guide, said shuttle including a rack portion of a rack-and-pinion mechanism; - a motor mounted in the housing, - a spindle mounted for rotation to the housing, said spindle including a pinion gear secured thereto to be intermeshed with said rack portion; and - said rack-and-pinion mechanism operably driven by the motor and connected to the spindle to oscillate the spindle for providing a rotary oscillating cutting operation characterized in that said motor drives an eccentric drive , said eccentric drive having a pin member offset with respect to a motor shaft that cooperates with a slot in said shuttle to reciprocate said shuttle along said guide during rotation of said motor shaft, a counterbalance secured to said eccentric drive offset from said motor shaft and said pin member. - a housing , said housing including a guide , said guide being constructed and arranged to guide a shuttle slidably mounted on said guide for reciprocating lateral translation along said guide, said shuttle including a rack portion of a rack-and-pinion mechanism; - a motor mounted in the housing, - a spindle mounted for rotation to the housing, said spindle including a pinion gear secured thereto to be intermeshed with said rack portion; and - said rack-and-pinion mechanism operably driven by the motor and connected to the spindle to oscillate the spindle for providing a rotary oscillating cutting operation
An ultra-high-strength hot-rolled steel strip or sheet with tensile strength of at least 1100 MPa and total elongation not less than 21%, comprising in weight percentage: C: 0.12 to 0.24; Mn: 0.8 to 2.1; Si: 0.4 to 1.1; Cr: 0.8 to 1.5; Al: 0.05 to 0.3; Mo: 0.05 to 0.25; Nb: 0.018 to 0.035; Ti: 0.01 to 0.1; S: 0.014 max; P: 0.028 max; and N: 0.005 max; wherein the remainder is Fe with inevitable impurities; wherein the steel comprises by volume 80 to 85% of bainitic ferrite phase, 10 to 14% of martensite phase, and retained austenite phase as a remainder, measured with method according to the description. wherein the remainder is Fe with inevitable impurities; wherein the steel comprises by volume 80 to 85% of bainitic ferrite phase, 10 to 14% of martensite phase, and retained austenite phase as a remainder, measured with method according to the description.
A method for manufacturing a solar cell , comprising the steps of: forming unevenness on both of main surfaces of a semiconductor substrate of a first conductivity type; forming a base layer of the first conductivity type, having a dopant concentration higher than in the semiconductor substrate, on a first main surface of the semiconductor substrate; forming a diffusion mask on the base layer; removing the diffusion mask in a pattern to have a remaining diffusion mask at other than a portion where the diffusion mask has been removed; forming an emitter layer of a second conductivity type which is an opposite conductivity type to the first conductivity type, on the portion of the first main surface where the diffusion mask has been removed; removing the remaining diffusion mask ; forming a dielectric film on the first main surface; forming a base electrode on the base layer ; and forming an emitter electrode on the emitter layer , characterized in that the surface of the semiconductor substrate is subjected to etching on the portion where the diffusion mask has been removed after the step of removing the diffusion mask in a pattern and before the step of forming the emitter layer to thereby form a flat recess . forming unevenness on both of main surfaces of a semiconductor substrate of a first conductivity type; forming a base layer of the first conductivity type, having a dopant concentration higher than in the semiconductor substrate, on a first main surface of the semiconductor substrate; forming a diffusion mask on the base layer; removing the diffusion mask in a pattern to have a remaining diffusion mask at other than a portion where the diffusion mask has been removed; forming an emitter layer of a second conductivity type which is an opposite conductivity type to the first conductivity type, on the portion of the first main surface where the diffusion mask has been removed; removing the remaining diffusion mask ; forming a dielectric film on the first main surface; forming a base electrode on the base layer ; and forming an emitter electrode on the emitter layer , characterized in that the surface of the semiconductor substrate is subjected to etching on the portion where the diffusion mask has been removed after the step of removing the diffusion mask in a pattern and before the step of forming the emitter layer to thereby form a flat recess .
A fluidic device comprising: a fluidic die (102, 202a-c, 302); a support element coupled to the fluidic die (102, 202a-c, 302); a fluid channel within the support element and defining a fluid path (114, 314a-c) through the support element and a fluid aperture of the fluidic die (102, 202a-c, 302); characterised in that a conductive element arranged in the fluid path (114, 314a-c), the conductive element electrically coupled to a ground of the fluidic die (102, 202a-c, 302), and a material and size of the conductive element to engender galvanic effect at an approximately zero potential. a fluidic die (102, 202a-c, 302); a support element coupled to the fluidic die (102, 202a-c, 302); a fluid channel within the support element and defining a fluid path (114, 314a-c) through the support element and a fluid aperture of the fluidic die (102, 202a-c, 302);
A medicament comprising a caspase inhibitor for use in treating or preventing a corneal endothelial condition, disorder, or disease due to a transforming growth factor-β (TGF-β) signal in corneal endothelial cells, wherein the condition, disorder, or disease is selected from the group consisting of Fuchs' endothelial corneal dystrophy, post-corneal transplant disorder, corneal endotheliitis, trauma, ophthalmic surgery, post-ophthalmic laser surgery disorder, aging, posterior polymorphous dystrophy (PPD), congenital hereditary endothelial dystrophy (CHED), and idiopathic corneal endothelial disorder.
A load sensor mounting bracket assembly, longitudinally symmetrical about the central longitudinal axis , comprising a first sensor mounting bracket (10a; 110a) and a second sensor mounting bracket (10b; 110b); at least one sensor attachment fixture (14; 120) configured to facilitate attachment of one of the first sensor mounting bracket or second sensor mounting bracket to a sensor mounting fixture and at least one mounting element configured to facilitate attachment of the one bracket (10a, 10b; 110a, 110b) to a load bearing plate or a sensor support structure, characterized in that the first sensor mounting bracket and the second sensor mounting bracket (10b; 110b) are combined together, one on top of the other in parallel orientation, wherein each of the first and second mounting brackets (10a, 10b; 110a, 110b) comprises a base portion formed of a first base section and a second base section , wherein the second mounting bracket (10b; 110b) is aligned on top of the first mounting bracket (10a; 110a) such that the first base section of the second mounting bracket (10b; 110b) is located in the second base section of the first mounting bracket (10a; 110a).
A communication device for handling network slice information, comprising: a storage device ; and a processing circuit , coupled to the storage device , wherein the storage device stores, and the processing circuit is configured to execute, instructions of: entering a RRC_CONNECTED state and establishing a radio resource control, RRC, connection to a network; receiving a first RRC message on the RRC connection from the network, wherein the first RRC message suspends the RRC connection or configures the communication device to enter a RRC_INACTIVE state; and performing a RRC procedure with the network to resume the RRC connection or transferring to the RRC_CONNECTED state from the RRC_INACTIVE state; characterized in that the instructions further comprise: transmitting a second RRC message of the RRC procedure to the network, wherein the second RRC message comprises network slice information. a storage device ; and a processing circuit , coupled to the storage device , wherein the storage device stores, and the processing circuit is configured to execute, instructions of: entering a RRC_CONNECTED state and establishing a radio resource control, RRC, connection to a network; receiving a first RRC message on the RRC connection from the network, wherein the first RRC message suspends the RRC connection or configures the communication device to enter a RRC_INACTIVE state; and performing a RRC procedure with the network to resume the RRC connection or transferring to the RRC_CONNECTED state from the RRC_INACTIVE state; characterized in that the instructions further comprise: transmitting a second RRC message of the RRC procedure to the network, wherein the second RRC message comprises network slice information. entering a RRC_CONNECTED state and establishing a radio resource control, RRC, connection to a network; receiving a first RRC message on the RRC connection from the network, wherein the first RRC message suspends the RRC connection or configures the communication device to enter a RRC_INACTIVE state; and performing a RRC procedure with the network to resume the RRC connection or transferring to the RRC_CONNECTED state from the RRC_INACTIVE state; characterized in that the instructions further comprise: transmitting a second RRC message of the RRC procedure to the network, wherein the second RRC message comprises network slice information.
A miniature robotic device designed to be coupled to a flexible endoscope for the surgical dissection of digestive tract surface neoplasms comprising a cap body removably fixable to a distal end of said endoscope and characterized in that it further comprises at least two robotic arms , slidably supported within said cap body , for performing manipulative and surgical dissection operations and drive means for sliding said arms along said cap body for placing said arms in an operative position, in which they protrude from said cap body , and in a rest position, in which they are retracted within said cap body .
A method of introducing a deuterated lower-alkyl, which is a deuterated methyl or deuterated ethyl, into a secondary amine in a compound having the secondary amine, comprising replacing the hydrogen atom in the secondary amine by an aralkyl, lower-alkylating the obtained tertiary amine with a deuterated-lower-alkylating agent, which is a deuterated-methylating or deuterated-ethylating agent having a sulfonate, sulfate or carbonate leaving group, under neutral or basic condition, and then eliminating the aralkyl group, wherein the aralkyl is a benzyl derivative, and the compound having a secondary amine is a linear amine or a compound having a piperazine, pyrrolidine, azepane, diazepane, or morpholine structure, which may be a single ring system or a part of a bicyclic, tricyclic, or tetracyclic system. replacing the hydrogen atom in the secondary amine by an aralkyl, lower-alkylating the obtained tertiary amine with a deuterated-lower-alkylating agent, which is a deuterated-methylating or deuterated-ethylating agent having a sulfonate, sulfate or carbonate leaving group, under neutral or basic condition, and then eliminating the aralkyl group, wherein the aralkyl is a benzyl derivative, and the compound having a secondary amine is a linear amine or a compound having a piperazine, pyrrolidine, azepane, diazepane, or morpholine structure, which may be a single ring system or a part of a bicyclic, tricyclic, or tetracyclic system.
A sensor structure comprising a measuring element holder and a measuring element for measuring the dynamic pressure and additionally for measuring the temperature and/or the static pressure, said measuring element comprising a body made of a piezoelectric material, wherein the body comprises lateral surfaces arranged opposite of one another in a transversal direction (Ta) at each of which are arranged lateral surface electrodes , wherein the measuring element is mounted in the longitudinal direction (L) in the measuring element holder in a pre-stressed manner for utilizing the piezoelectric effect and can be exposed to a force (F), characterized in that the piezoelectric material of the body is chosen to have a shear coefficient (eiij) of the piezoelectric e-tensor (eijk) that is not equal to zero (with i (i = 1..3) and j (j = 1..3)) so that the inverse piezoelectric effect can be utilized during operation as a thickness shear oscillator for measuring the temperature and/or the static pressure, by enabling the lateral electrodes to be connected to evaluation and excitation electronics by means of supply lines and the piezoelectric body to be excited with a thickness oscillation frequency (f) to perform oscillations, and in that additionally a transverse coefficient (dijj) of the piezoelectric d-tensor (dijk) is not equal to zero (with i (i = 1..3) and j (j = 1..3)) so that the transverse piezoelectric effect in the transversal direction (Ta) is utilized simultaneously with the inverse piezoelectric effect by the same body .
A laundry machine having a drying function, the laundry machine comprising: a tub to hold water therein during a washing cycle, the tub having a hot air inlet and a hot air outlet to allow in and discharge hot air, the hot air outlet being formed at a side portion of the upper portion of the circumferential surface of the tub ; a drum rotatably placed in the tub ; a duct connecting the hot air inlet and the hot air outlet in fluid communication to provide a passage for the hot air to flow to the tub ; a heater and a fan provided in the duct to generate hot air; a filter for filtering foreign substances in the hot air discharged from the tub ; a filter cleaner for supplying cleaning water to the filter ; and a valve for controlling a time of supplying cleaning water to the filter , wherein the tub provides a space where the hot air condenses, wherein a condensing plate is provided along the inner circumferential surface of the tub below the hot air outlet so that water contained in the hot air is condensed in contact with the condensing plate before the hot air is discharged through the hot air outlet , characterized in that wherein a cooling water passage is formed by a groove in the condensing plate, the groove projecting towards the inner surface of the tub , wherein the cooling water passage is formed between the inner surface of the tub and the condensing plate so that cooling water flows in a zigzag shape. a tub to hold water therein during a washing cycle, the tub having a hot air inlet and a hot air outlet to allow in and discharge hot air, the hot air outlet being formed at a side portion of the upper portion of the circumferential surface of the tub ; a drum rotatably placed in the tub ; a duct connecting the hot air inlet and the hot air outlet in fluid communication to provide a passage for the hot air to flow to the tub ; a heater and a fan provided in the duct to generate hot air; a filter for filtering foreign substances in the hot air discharged from the tub ; a filter cleaner for supplying cleaning water to the filter ; and a valve for controlling a time of supplying cleaning water to the filter , wherein the tub provides a space where the hot air condenses, wherein a condensing plate is provided along the inner circumferential surface of the tub below the hot air outlet so that water contained in the hot air is condensed in contact with the condensing plate before the hot air is discharged through the hot air outlet , characterized in that wherein a cooling water passage is formed by a groove in the condensing plate, the groove projecting towards the inner surface of the tub , wherein the cooling water passage is formed between the inner surface of the tub and the condensing plate so that cooling water flows in a zigzag shape.
An elongated structure having a length axis and comprising: a pole comprising a circular wall around a hollow core as a tubular body part extending in an axial direction along the length axis ; an H-shaped frame arranged in the core and extending in the axial direction characterized in that the H-shaped frame being connected to the wall at at least a base section of the tubular body part, wherein the H-shaped frame is formed by stems connected by a cross-bar wherein ends of said stems are touched by the circular wall circumscribing the H-shaped frame thereby essentially dividing the core in at least two concave portions, at least two doors provided in the wall and arranged on either side of the H-shaped frame, a respective concave portion being formed by the cross bar, respective stem parts, and a respective wall part, with a respective door in opened position providing access to said respective concave portion and in closed position closing said respective concave portion, and wherein equipment is concealable in the base section of the tubular body and mountable in the concave portions of the H-shaped frame by mounting onto mounting means provided at the H-shaped frame. a pole comprising a circular wall around a hollow core as a tubular body part extending in an axial direction along the length axis ; an H-shaped frame arranged in the core and extending in the axial direction characterized in that the H-shaped frame being connected to the wall at at least a base section of the tubular body part, wherein the H-shaped frame is formed by stems connected by a cross-bar wherein ends of said stems are touched by the circular wall circumscribing the H-shaped frame thereby essentially dividing the core in at least two concave portions, at least two doors provided in the wall and arranged on either side of the H-shaped frame, a respective concave portion being formed by the cross bar, respective stem parts, and a respective wall part, with a respective door in opened position providing access to said respective concave portion and in closed position closing said respective concave portion, and wherein equipment is concealable in the base section of the tubular body and mountable in the concave portions of the H-shaped frame by mounting onto mounting means provided at the H-shaped frame.
Seat valve , with a valve body having a plurality of inlet channels , with a plurality of closing elements arranged movably in a longitudinal direction (L), wherein a closing element for opening and closing the inlet channel is assigned to each inlet channel , with a closing spring assigned to each closing element , which exerts on the respective closing element a biasing force oriented towards the closing of the inlet channel , wherein to each closing element is assigned a braking device which is arranged separately from the closing element and which gradually brakes an opening movement of the respective closing element when the inlet channel is opened independently of the closing spring , wherein the braking device has a stop body with a stop surface , against which the closing element can be brought to bear after an opening movement when the inlet channel is opened, wherein the stop body is arranged movably and/or flexibly in the opening direction of the closing element , wherein the braking device is guided by a guide device along the longitudinal direction (L), so that the stop body is arranged movably in the longitudinal direction (L), wherein the guide device has a sleeve-shaped section , wherein the braking device is arranged at least in sections within a recess of the sleeve-shaped section and wherein the guide device for the closing element forms an inner guide along which the closing element is guided movably in the longitudinal direction (L).