mhurhangee/patent-ind-claim-en huggingface dataset:
A removable connecting system for connecting a crosspiece to an upright, the system comprising: - a crosspiece having a rectilinear longitudinal extension in a first predetermined direction (D1), the crosspiece having a first longitudinal end , - an upright configured to be positioned transversely to the crosspiece at the first longitudinal end , - a first mechanical coupling slider , slidably coupled with the crosspiece and supporting at least one gripper element designed to engage with the upright , - an actuating lever pivoted on the crosspiece and operatively connected to the first slider for moving the latter relative to the crosspiece , - means for controlling the gripper element for stably engaging the gripper element with the upright , characterized in that the crosspiece and the upright comprise respective electrical conductors (C1, C2), wherein the connecting system comprises a second slider for electrical connection, slidably coupled with the crosspiece and designed to be operated by the actuating lever for moving relative to the crosspiece and engaging with the upright for defining an electrical connection between the electrical conductors (C1, C2) of the crosspiece and the upright . - a crosspiece having a rectilinear longitudinal extension in a first predetermined direction (D1), the crosspiece having a first longitudinal end , - an upright configured to be positioned transversely to the crosspiece at the first longitudinal end , - a first mechanical coupling slider , slidably coupled with the crosspiece and supporting at least one gripper element designed to engage with the upright , - an actuating lever pivoted on the crosspiece and operatively connected to the first slider for moving the latter relative to the crosspiece , - means for controlling the gripper element for stably engaging the gripper element with the upright ,
Aluminium die casting alloy comprising the following alloy components: 7.5 to 11.5 wt % silicon, 0.25 to 0.6 wt % manganese, 0.03 to 0.06 wt % chromium, 0.001 to 0.048 wt %, in particular 0.001 to 0.043 wt %, in particular 0.024 to 0.043 wt % molybdenum, 0.001 to 0.08 wt % magnesium, optionally 0.001 to 0.15 wt % iron, optionally 0.004 to 0.15 wt % titanium, optionally 0.01 to 0.2 wt % zirconium, optionally 0.008 to 0.02 wt % strontium, optionally 0.001 to 0.1 wt % vanadium, the rest aluminium and unavoidable impurities. 7.5 to 11.5 wt % silicon, 0.25 to 0.6 wt % manganese, 0.03 to 0.06 wt % chromium, 0.001 to 0.048 wt %, in particular 0.001 to 0.043 wt %, in particular 0.024 to 0.043 wt % molybdenum, 0.001 to 0.08 wt % magnesium, optionally 0.001 to 0.15 wt % iron, optionally 0.004 to 0.15 wt % titanium, optionally 0.01 to 0.2 wt % zirconium, optionally 0.008 to 0.02 wt % strontium, optionally 0.001 to 0.1 wt % vanadium, the rest aluminium and unavoidable impurities.
A printer, comprising: • a light source that directs light toward a print medium path; • a red-green-blue (RGB) light sensor positioned to receive light from the light source that is reflected by a print medium ; • an infrared light filter situated between the RGB light sensor and the print medium so as to filter out infrared light entering the RGB light sensor ; and • a programmed processor ; the RGB light sensor having an output coupled to the programmed processor ; the programmed processor being programmed to: o detect at least one form element in the output from the RGB light sensor , the at least one form element being used to retrieve a stored electronic representation of a form; ∘ match the at least one form element to the stored electronic representation of the form to identify locations on the form; and ∘ control printing to the form. • a light source that directs light toward a print medium path; • a red-green-blue (RGB) light sensor positioned to receive light from the light source that is reflected by a print medium ; • an infrared light filter situated between the RGB light sensor and the print medium so as to filter out infrared light entering the RGB light sensor ; and • a programmed processor ; o detect at least one form element in the output from the RGB light sensor , the at least one form element being used to retrieve a stored electronic representation of a form; ∘ match the at least one form element to the stored electronic representation of the form to identify locations on the form; and ∘ control printing to the form.
A powered surgical instrument configured to withstand steam sterilization comprising: (a) a handpiece having a distal and proximal end; (b) a housing defining an outer perimeter of the handpiece; and (c) an input device (1771; 1772) sealed within the handpiece, wherein the input device is configured to activate and control an energy level provided to an end effector , wherein the input device comprises: a molded interconnect device (1780; 1782), a plurality of electrical contacts positioned on the molded interconnect device, a proximity circuit , and a microprocessor in communication with the plurality of electrical contacts, wherein the microprocessor is configured to detect voltage changes at each of the plurality of electrical contacts, wherein the microprocessor is further configured to direct an energy source to provide a selected energy level to the instrument based on voltage changes detected at the electrical contacts. (a) a handpiece having a distal and proximal end; (b) a housing defining an outer perimeter of the handpiece; and (c) an input device (1771; 1772) sealed within the handpiece, wherein the input device is configured to activate and control an energy level provided to an end effector , wherein the input device comprises: a molded interconnect device (1780; 1782), a plurality of electrical contacts positioned on the molded interconnect device, a molded interconnect device (1780; 1782), a plurality of electrical contacts positioned on the molded interconnect device,
A copper base substrate , wherein a copper substrate , an insulating layer , and a circuit layer are laminated in an order in the copper base substrate , the ratio of the thickness (unit: μm) to the elastic modulus (unit: GPa) at 100°C is 50 or more in the insulating layer , and the circuit layer has an elastic modulus at 100°C of 100 GPa or less. wherein a copper substrate , an insulating layer , and a circuit layer are laminated in an order in the copper base substrate , the ratio of the thickness (unit: μm) to the elastic modulus (unit: GPa) at 100°C is 50 or more in the insulating layer , and the circuit layer has an elastic modulus at 100°C of 100 GPa or less.
A fixing apparatus configured to fix a toner image on a print medium (S) by spraying a fixing solution on the print medium (S) with the toner image formed thereon, the fixing apparatus comprising: a plurality of first nozzles from which the fixing solution is sprayed onto the print medium (S) with the toner image formed thereon, and to which voltage is to be applied, a first electrode to which voltage is to be applied, which extends in a first direction, which faces the plurality of first nozzles in a second direction, and which is positioned apart from the plurality of first nozzles in the second direction, a holding groove which accommodates the first electrode , which is configured to hold the fixing solution sprayed from the plurality of first nozzles , and which has a discharge port through which the fixing solution held in the holding groove is discharged, and a container connected to the discharge port and configured to contain the fixing solution discharged from the discharge port , wherein the holding groove has a bottom surface which is positioned on an opposite side of the plurality of first nozzles with respect to the first electrode in the second direction, and which is positioned apart from the first electrode in the second direction so that the fixing solution held in the holding groove passes between the first electrode and the bottom surface to flow toward the discharge port . a plurality of first nozzles from which the fixing solution is sprayed onto the print medium (S) with the toner image formed thereon, and to which voltage is to be applied, a first electrode to which voltage is to be applied, which extends in a first direction, which faces the plurality of first nozzles in a second direction, and which is positioned apart from the plurality of first nozzles in the second direction, a holding groove which accommodates the first electrode , which is configured to hold the fixing solution sprayed from the plurality of first nozzles , and which has a discharge port through which the fixing solution held in the holding groove is discharged, and a container connected to the discharge port and configured to contain the fixing solution discharged from the discharge port , wherein the holding groove has a bottom surface which is positioned on an opposite side of the plurality of first nozzles with respect to the first electrode in the second direction, and which is positioned apart from the first electrode in the second direction so that the fixing solution held in the holding groove passes between the first electrode and the bottom surface to flow toward the discharge port .
A method for producing alcohols comprising: providing a first bioreactor comprising a first biological catalyst system and converting in the first bioreactor a feedstock into an intermediate product comprising an amino acid or lactic acid; providing a second bioreactor comprising a second biological catalyst system and converting in the second bioreactor at least a portion of the intermediate product into said alcohol; wherein the first biological catalyst system is not capable of producing said alcohol; wherein said alcohol is isobutanol, n-butanol, 3-methyl-1-butanol or 2-methyl-1-butanol; wherein the first biological catalyst system comprises at least one enzyme selected from the group consisting of LeuDH, IlvBN, IlvC, and IlvD; wherein the second biological catalyst system comprises at least one enzyme selected from the group consisting of LeuDH, KivD, YqhD, AdhP, Ldh, AlsS, IlvC, IlvD and AdhA. providing a first bioreactor comprising a first biological catalyst system and converting in the first bioreactor a feedstock into an intermediate product comprising an amino acid or lactic acid; providing a second bioreactor comprising a second biological catalyst system and converting in the second bioreactor at least a portion of the intermediate product into said alcohol; wherein the first biological catalyst system is not capable of producing said alcohol; wherein said alcohol is isobutanol, n-butanol, 3-methyl-1-butanol or 2-methyl-1-butanol; wherein the first biological catalyst system comprises at least one enzyme selected from the group consisting of LeuDH, IlvBN, IlvC, and IlvD; wherein the second biological catalyst system comprises at least one enzyme selected from the group consisting of LeuDH, KivD, YqhD, AdhP, Ldh, AlsS, IlvC, IlvD and AdhA.
A surgical access port assembly configured to attach to a lumen of a surgical instrument, the surgical access port comprising: a hollow cannula defining an interior shaft extending longitudinally therethrough and having a diameter of less than about 3 mm; and a tapered hub on a proximal end of the hollow cannula , the tapered hub having a tapered open end portion , and an inner conical surface with at least one inner ring on the inner conical surface, the at least one inner ring being configured to attach to the surgical instrument via friction or compression of the at least one inner ring(1 18A, 118B, 118C) on the inner conical surface, and a locking mechanism comprising: a lock base with a central ring, having an aperture configured to receive the surgical access port; and a locking member , and a ball disposed between the lock base and the locking member , the locking member having an opening configured to receive the surgical access port, wherein the locking member is configured to rotate relative to the lock base into a locked position to secure the surgical access port to the patient, when inserted into a fascia. a hollow cannula defining an interior shaft extending longitudinally therethrough and having a diameter of less than about 3 mm; and a tapered hub on a proximal end of the hollow cannula , the tapered hub having a tapered open end portion , and an inner conical surface with at least one inner ring on the inner conical surface, the at least one inner ring being configured to attach to the surgical instrument via friction or compression of the at least one inner ring(1 18A, 118B, 118C) on the inner conical surface, and a locking mechanism comprising: a lock base with a central ring, having an aperture configured to receive the surgical access port; and a locking member , and a ball disposed between the lock base and the locking member , the locking member having an opening configured to receive the surgical access port, a lock base with a central ring, having an aperture configured to receive the surgical access port; and a locking member , and a ball disposed between the lock base and the locking member , the locking member having an opening configured to receive the surgical access port, wherein the locking member is configured to rotate relative to the lock base into a locked position to secure the surgical access port to the patient, when inserted into a fascia.
- Tyre for a heavy-duty vehicle, this tyre comprising a tread having a thickness E of wearable material and a tread surface intended to come into contact with a roadway, this tread having at least one raised element , this raised element having a contact face forming part of the tread surface , lateral faces intersecting the contact face along edge corners, each raised element having a height at least equal to the thickness E of wearable material, this at least one raised element being provided with a plurality of sipes distributed in the circumferential direction, these sipes being inclined theough the depth of the tread, namely making an angle other than zero degrees with a radial plane perpendicular to the contact face of the raised element , these inclined sipes extending through the thickness of the tread and intersecting the contact face of the raised element to form edge corners, these inclined sipes having suitable widths such that they close up at least partially when they enter the contact patch in contact with the roadway, this tyre being characterized in that the material of the tread that is intended to be in contact when new with a roadway is an elastomer compound based on natural rubber or synthetic polyisoprene with a majority of cis-1,4 linkages and optionally on at least one other diene elastomer, the natural rubber or the synthetic polyisoprene in case of a blend being present in a majority amount relative to the amount of the other diene elastomer(s) used and on a reinforcing filler consisting predominantly of silica, with a content expressed in phr (parts by weight per hundred rubber) of greater than 40 and an overall filler content expressed in phr of greater than 50, this material further having the following physical properties: - a tan(δ)max/(G ∗ 25 % ) ratio is at most equal to 0.065, in which tan(δ)max is the measurement, at 60°C, of the loss factor of the material of which the tread is made, and G ∗ at 25% deformation is the complex dynamic shear modulus, expressed in MPa, of this material as obtained according to the recommendations of standard ASTM D 5992-96, and - a deformation at break under tensile testing that is at least equal to 530%, this value being obtained at a temperature of 60°C according to the recommendations of French standard NF T 46-002. - a tan(δ)max/(G ∗ 25 % ) ratio is at most equal to 0.065, in which tan(δ)max is the measurement, at 60°C, of the loss factor of the material of which the tread is made, and G ∗ at 25% deformation is the complex dynamic shear modulus, expressed in MPa, of this material as obtained according to the recommendations of standard ASTM D 5992-96, and - a deformation at break under tensile testing that is at least equal to 530%, this value being obtained at a temperature of 60°C according to the recommendations of French standard NF T 46-002.
An article for introducing a fluid into a fluidic system, comprising: a fluid collection region comprising an edge , a sidewall , and a bottom portion ; and a receiving channel integrally connected to and in fluidic communication with the fluid collection region , wherein the receiving channel includes a concave portion adapted and arranged to receive a fluidic channel. a fluid collection region comprising an edge , a sidewall , and a bottom portion ; and a receiving channel integrally connected to and in fluidic communication with the fluid collection region , wherein the receiving channel includes a concave portion adapted and arranged to receive a fluidic channel.
A therapeutic product delivery device, comprising: a circuit layer ; an actuator layer carrying an actuator for delivering a therapeutic product to a patient; a valve layer , through which the therapeutic product is conveyed to the patient by the action of the actuator, the valve layer comprising an outlet valve via which the therapeutic product is required to pass to reach the patient, characterised by a break-through valve (G) through which the therapeutic product is only able to pass in the event that a blockage inhibits the therapeutic product from reaching the patient; and an occlusion detection layer comprising a plurality of contacts in a detection region at which said therapeutic product is deposited after passing through the break-through valve in the event said blockage inhibits the therapeutic product from reaching the patient, the circuit layer being arranged to detect said blockage when the therapeutic product deposited in the detection region provides an electrical connection between said contacts . a circuit layer ; an actuator layer carrying an actuator for delivering a therapeutic product to a patient; a valve layer , through which the therapeutic product is conveyed to the patient by the action of the actuator, the valve layer comprising an outlet valve via which the therapeutic product is required to pass to reach the patient, characterised by a break-through valve (G) through which the therapeutic product is only able to pass in the event that a blockage inhibits the therapeutic product from reaching the patient; and an occlusion detection layer comprising a plurality of contacts in a detection region at which said therapeutic product is deposited after passing through the break-through valve in the event said blockage inhibits the therapeutic product from reaching the patient, the circuit layer being arranged to detect said blockage when the therapeutic product deposited in the detection region provides an electrical connection between said contacts . a valve layer , through which the therapeutic product is conveyed to the patient by the action of the actuator, the valve layer comprising an outlet valve via which the therapeutic product is required to pass to reach the patient, characterised by a break-through valve (G) through which the therapeutic product is only able to pass in the event that a blockage inhibits the therapeutic product from reaching the patient; and an occlusion detection layer comprising a plurality of contacts in a detection region at which said therapeutic product is deposited after passing through the break-through valve in the event said blockage inhibits the therapeutic product from reaching the patient, the circuit layer being arranged to detect said blockage when the therapeutic product deposited in the detection region provides an electrical connection between said contacts .
A glass composition comprising the following components in weight percentage, expressed with respect to the total weight of the glass composition: SiO 2 50 - 85% Al 2 O 3 0 - 30% B 2 O 3 0 - 20% Na 2 O 0 - 25% CaO 0 - 25% MgO 0 - 15% K 2 O 0 - 20% BaO 0 - 20% Fe 2 O 3 total 0.002 - 0.1% characterized in that the glass composition further comprises nickel, expressed as NiO, at a level of 0.0001% to 0.0018% by weight, cobalt, expressed as CoO, at a level of 0.00005% to 0.0020% by weight and selenium, expressed as Se, in less than 3ppm.
A process for preparing an alcohol ethoxylate having an average degree of ethoxylation ranging from 1 to 10 comprising the step i) of reacting ethylene oxide with a linear or branched, C 8 -C 20 alcohol in the presence of 1% to 10% by weight of a catalyst, characterized in that the catalyst is selected from the group consisting of C 1 -C 14 sulfonic acids and dodecylbenzene sulfonic acid, further comprising the step ii) of post-treating the product of step i), or further comprising the step ii) of reacting the product of step i) with a basic catalyst and the step iii) of post-treating the product of step ii). further comprising the step ii) of post-treating the product of step i), or further comprising the step ii) of reacting the product of step i) with a basic catalyst and the step iii) of post-treating the product of step ii).
An enhanced cutting tool, comprising: i. A cemented carbide WC-Co matrix with a cobalt-depleted surface layer, wherein the matrix comprises 1-6% cobalt and wherein the surface layer comprises 0.1-1% cobalt; ii. a boron-doped graded diamond thin film coated on the cemented carbide matrix, comprising: a) a bottom coating layer formed on the surface layer of the cemented carbide material, comprising a boron-doped microcrystalline diamond having a grain size in the range 1 to 1.5 μm, wherein the concentration of boron in the bottom layer is between 0.2-0.25%; b) a top coating layer, comprising a nanocrystalline diamond substantially free of boron and having a grain size in the range 400 to 500 nm; and c) a transition coating layer formed between the top and bottom layers, comprising a decreasing concentration gradient of boron from 0.2-0.25% in the surface in contact with the bottom layer to the surface in contact with the top layer substantially free of boron. i. A cemented carbide WC-Co matrix with a cobalt-depleted surface layer, wherein the matrix comprises 1-6% cobalt and wherein the surface layer comprises 0.1-1% cobalt; ii. a boron-doped graded diamond thin film coated on the cemented carbide matrix, comprising: a) a bottom coating layer formed on the surface layer of the cemented carbide material, comprising a boron-doped microcrystalline diamond having a grain size in the range 1 to 1.5 μm, wherein the concentration of boron in the bottom layer is between 0.2-0.25%; b) a top coating layer, comprising a nanocrystalline diamond substantially free of boron and having a grain size in the range 400 to 500 nm; and c) a transition coating layer formed between the top and bottom layers, comprising a decreasing concentration gradient of boron from 0.2-0.25% in the surface in contact with the bottom layer to the surface in contact with the top layer substantially free of boron. a) a bottom coating layer formed on the surface layer of the cemented carbide material, comprising a boron-doped microcrystalline diamond having a grain size in the range 1 to 1.5 μm, wherein the concentration of boron in the bottom layer is between 0.2-0.25%; b) a top coating layer, comprising a nanocrystalline diamond substantially free of boron and having a grain size in the range 400 to 500 nm; and c) a transition coating layer formed between the top and bottom layers, comprising a decreasing concentration gradient of boron from 0.2-0.25% in the surface in contact with the bottom layer to the surface in contact with the top layer substantially free of boron.
Composition for determining origin of materials, the composition having exactly two constituents, the first constituent being at least one isotope of the metal osmium and the second constituent containing at least W, with the mass fraction w 2 of the second constituent being greater by at least 5%, preferably 10%, than the mass fraction w 1 of the first constituent, characterized in that the second constituent consists of metals and in that the first constituent is 184 Os and/or 186 Os.